JP2009523206A - Modular testing equipment - Google Patents

Abstract

  The present invention relates to two lateral walls 2.3 joining two side walls 2.1, 2.2, 4.1, 4.2 and side walls 2.1, 2.2, 4.1, 4.2, respectively. A modular test apparatus 1 comprising at least two building modules 2, 4 comprising 2.4, 4.3, 4.4 and formed as a portable container, the first being for receiving a specimen At least one building module 2 of length L2 and width B2 formed as a test module is provided, and at least one of length L4 and width B4 formed as a first supply module for receiving the supply technology The building module 4 is provided, the first supply module 4 is disposed above the first test module 2, and the length L4 is shorter than the length L2. For the purpose of supplementing the test device 1, at least one third building module 3 is provided, which is formed as a first test technology module for receiving the test technology, the first test technology module 3 comprising two side walls 3. .1, 3.2 and side walls 3.1, 3.2 have two lateral walls 3.3, 3.4, a length L3 and a width B3. 1 can be placed next to the side wall 2.2 of the first test module 2 and the width B4 is at least 20% smaller than the width B2 or B3, ie the ratio of B4 / B2 or B4 / B3 is the highest 2 / 2.5.

Description

  The present invention is a modular test device comprising at least two building modules each formed as a portable container with two side walls and two lateral walls joining the side walls, respectively, for receiving a specimen. At least one building module of length L2 and width B2 formed as one test module is provided, and at least one of length L4 and width B4 formed as a first supply module for accepting supply technology A building module is provided, the first supply module is arranged above the first test module, and the length L4 is shorter than the length L2.

  A modular test device with at least one test module and a technical supply is already known from WO 01/25745, where each test device module has an experimental cell for receiving the device under test. The test module is individually connected to each technical supply means via a technical supply module, the technical supply module being arranged on the test equipment module and having a cooling means. Each module is primarily dimensioned to be compatible with the vessel container.

  The object of the present invention is to form and arrange a modular test device so that an efficient structure and inexpensive transport are guaranteed.

  According to the invention, this object is provided with at least one third building module formed as a first test technology module for receiving test technology for the purpose of supplementing the test device, The technology module has two side walls, two side walls joining the side walls, a length L3 and a width B3, the first test technology module can be installed with the side wall next to the first test module and in contact with the side wall; This is solved by the fact that the width B4 is smaller than the width B2 or B3. This achieves that more than two supply modules can be arranged at least partially on the test module and the test technology module in terms of width. On the one hand, enough space is provided below the test module or test technology module for various types of engine or drive train, exhaust system and test technology, while the required number of small supply modules is matched to the corresponding number of test modules and tests. The ratio of the widths B2, B3, B4 is selected so that it can be placed on the technology module. The supply modules are made thinner or smaller and at least they can be transported more quickly, in particular cheaper.

  This problem is also solved by the width B2 being larger than 3 m and the width B4 being smaller than the width B2. This ensures that the test module has the optimum width and provides enough space for the various types of specimens and test techniques inside the test module, while multiple supply modules are at least partially tested for width. It is achieved that it can be placed on a module. The ratio of the widths B2 and B4 is chosen so that the required number of small supply modules can be mounted on a corresponding number of test modules. The supply modules are made thinner or smaller and at least they can be transported more quickly, in particular cheaper.

  In this connection, the width B4 is at least 10% or 20% smaller than the width B2 or B3, ie the ratio of B4 / B2 or B4 / B3 is at most 2 / 2.2 or 2 / 2.5. Advantageously. This achieves that at least 2.2 or 2.5 supply modules can be arranged on the test module and the test technology module. When using two test modules and two test technology modules respectively, ie a total of four test or test technology modules, 4.4, five, mainly six supply modules are placed on the test module or test technology module. Can be installed.

  Thus, the ratio of B4 / B2 or B4 / B3 is equal to 2/3, 2/4 or 2/5 and two, three, four or five supply modules are placed on the first test technology module. It is also advantageous that it can be installed on the first test module. Adjacent supply modules can be placed side by side. Mainly three supply modules are provided on each of two test modules and / or test technology modules. However, four or five supply modules can be installed depending on the width ratio.

  With one configuration, it is an additional possibility that the total width Bp of the test modules and / or test technology modules is equal to the total width Bv of all supply modules mounted on them. In this way, a space-saving configuration of a test apparatus row composed of a plurality of test apparatuses arranged side by side is guaranteed, and the installation space on the test module or the test technology module can be optimally used. The joints can be optimally formed and there is no need to bridge structural gaps between individual joints of adjacent modules. With respect to the installation of the modules and with respect to the joints, an interrelation can be ensured that ensures a space-free use. Thus, a stable test device structure can be derived and guaranteed, taking into account the limit load of the test module or test technology module on the one hand and the rigidity of the supply module mounted on the other hand. The weight of the generated individual supply module is absorbed from a known location via the wall or wall support of the test module or test technology module.

  The length L4 is at least 20% shorter than the length L2 or the length L3, and the supply module and the test module and / or the supply module and the test technology module are arranged with the front lateral wall offset by a horizontal distance A; It is also advantageous if the rear lateral wall is installed in the same plane or offset and a bridge or passage is formed on the test module or test technology module before and / or after each supply module. If the rear lateral wall is similarly displaced, a small passage or bridge for the supply path is likewise provided behind the supply module. The distance A is then reduced by this backward displacement. Smaller or shorter formed supply modules can be transported more quickly and cheaply, so they can also be easily mounted on test modules or test technology modules and can be used as bridges or passages for test modules or test technology modules Accessible through a large ceiling or ceiling.

  The length L3 is then advantageously equal to the length L2 and the width B3 is equal to the width B2. The test module is exactly the same size as the test technology module. They thus form a unit with respect to the installation surface of the supply module.

  Each building module has one top wall or ceiling and one floor wall, and at least one joint with a predefined position and / or type is provided on the side wall, top wall and / or floor wall, It is for the present invention that the operating substance and auxiliary substance conduits can be guided from one building module to an adjacent building module via a joint, and the joint is formed as a recess or flange that can be covered. is important. The location of the joints is selected so that the joints of adjacent building modules are compatible or uniform, ie congruent, regardless of the various test equipment variants. As long as that is the case, since there is at least one joint pair between adjacent modules, the building module or the test apparatus can be installed without considering the joint to be used later. The joint can also be provided on one of the lateral walls. Some of these joints can also be specially formed, i.e. with corresponding connecting joints for exhaust, cooling water and the like. In that case, these joints can be combined with other joints without any problem. For example, a joint formed as an exhaust flange is provided on the ceiling wall of the test module, and this joint is connected to the exhaust supply module. It can be connected to a joint formed as an exhaust flange corresponding to the floor wall.

  Furthermore, one lateral wall is formed as a front lateral wall, one lateral wall is formed as a rear lateral wall, and the front lateral wall has a working door and / or door for loading and / or circulating modules. It is advantageous. Since each test device can be expanded laterally by other modules, there are no door and / or window elements on the side walls of the modules. All traffic for installation and operation is performed through the lateral wall, loading or loading of the test module is performed mainly through the front lateral wall, and entry is performed through the rear lateral wall.

  Furthermore, one building module formed as a control room module can be installed in contact with the rear side wall of the first test module and / or the first test technology module so that the first side wall of the control room module touches the rear side wall. It is advantageous if each rear transverse wall and the corresponding first side wall have at least one window opening and / or door opening for visual and / or entry purposes, respectively. Thus, the control room module is located on the remaining free surface of the test module or test technology module, since the side surfaces serve to attach to adjacent modules and the front lateral wall serves for loading. Depending on the external building conditions, i.e. whether the test equipment is in a closed or open hall, the control room module can be connected to the test equipment and can also be heated. As will be shown later, only one control room area is provided in the closed hall between the test apparatus and the hall wall. If hydrogen is used in the test apparatus, the control room module cannot be provided with window elements and / or door elements.

  Furthermore, it is advantageous if the control room module has window elements and / or door elements on at least the second side wall and / or the side wall for the purpose of passing outside light and / or persons. Depending on the workplace law perspective, daylight is particularly advantageous.

  Therefore, the width B4 of the building module for the supply module is 2.438 m (8 feet), the length L4 is 6.096 m (20 feet), and the height H4 is 2.590 m (8 feet & 6 feet). It is also advantageous that a tolerance of 05 m is provided. These dimensions are largely consistent with standard 20 foot marine containers, and the costs associated with shipping are optimized to take into account the required space requirements of the entire test equipment.

  At that time, the width B2 = B3 of the building module for the test module and / or the test technology module is 3.048 m to 4.267 m (10 feet to 14 feet), the length L2 = L3 is 7.0 m to 9.0 m, and high. The length H2 = H3 is advantageously 3.0 m to 4.0 m. The width dimension corresponds to a multiple of a 20 foot marine container taking into account space demand and the width ratio.

  Finally, it is advantageous if the test technology module and the building module for the test module are self-supporting over their entire length. For transportation on the road network, a maximum height of 4.00m is generally allowed without other measures. That is, for a height of 3.5 m, only a 0.5 m gap is provided for mounting the transport device. If necessary, the required shafts and wheels are mounted in front of the container module, and no separate work surface is needed to support the container.

  Finally, another building module formed as a second test module is provided, the second test module can be installed next to the side wall of the first test module, Advantageously, the second test module can be formed as a common large test module, the side walls of each test module being at least partially removable and / or having an insertion hole T. The second test module serves to replenish the first test module for the purpose of expanding the test apparatus so that large or complex specimens can be inspected with the four-wheel drive system and / or the exhaust system. Dividing the test cell into two test modules or building modules ensures a quick and favorable transport as already mentioned above. The second test module is arranged on the opposite side of the first test technology module from the first test technology module. Each adjacent side wall of the test module that forms the test cell in contact is either completely removed or at least partly to ensure the passage of the specimen, for example part of the drive train or part of the exhaust system It is either removed (insertion hole T).

  Advantageously, one building module is formed as a second test technology module, the second test technology module next to the side wall of the second test module and in contact with the side wall of the first test module. It can be installed on the opposite side. The second test technology module serves to provide test technology to the second test module. Two test technology modules are attached to a test cell consisting of two test modules. The second test technology module may also be available for adjacent test modules. Depending on the number of test modules or test technology modules, an appropriate number of supply modules can be mounted depending on the correlation. If, for example, three supply modules are sufficient for the test equipment, space on the test module or test technology module is not required, the remaining installation surface will be adjacent to the same test equipment row as described below. It can be used for a test equipment supply module.

  In connection with the configuration and arrangement according to the invention, one building module is formed as a supplemental module for the test module or test technology module, and the width B2 or B3 of the test module or test technology module together with the width B32 is one. Advantageously, the replenishment module has a width B32 so that it is twice, three times or four times the width B4 of one supply module. Because of the width ratio of B4 / B2 or B4 / B3, an integral multiple of width B4 may differ from an integer multiple of width B2 or B3, so the replenishment module serves as a width replenishment section for the test module or test technology module. In this way, the total width Bv of the supply module can always be adapted to the total width Bp of the test module or test technology module.

  For this reason, one building module is formed as an additional module for the replenishment module, and the additional module has a width such that the width B32 and the width B34 are combined to be the width B2 or B3 of one test module or test technology module. It is advantageous to have B34. If one replenishment module is provided, the width of one test module or test technology module can be achieved again by means of an additional module, and the test device train continues without overhangs or gaps based on a predetermined correlation. be able to.

  In connection with the configuration and arrangement according to the invention, it is advantageous if a plurality of modular test devices are arranged side by side in a row to form a test device row. Since only one test device with a single test cell or double test cells is generally not sufficient, the individual formed by the test module or test technology module and the supply module installed thereon, respectively, as described above These test devices can be arranged side by side, thus forming a test device row. The external side walls of the various test modules or test technology modules of one test device are free, and one adjacent test device can be installed arbitrarily.

  Furthermore, it is advantageous if a distance Z is provided between the side wall of the test module of the modular test device and the side wall of the test technology module so that an inlet for the control room module is formed which is arranged in contact with the rear lateral wall. In this way, it is possible to guarantee access to the control room module from the front according to the space situation given for the entire test apparatus. This type of arrangement is advantageous, especially when the test equipment train is very long.

  In addition, at least two test device rows are provided, the test device rows are arranged with a distance R exceeding 2 m on the front side wall of the test module, and a replacement space for loading and unloading the test module is guaranteed. It is advantageous to have. Since only one test device row having a plurality of test devices is generally not sufficient, two or more test device rows can be provided facing each other. In general, since one test equipment hall is available, the space provided can thus be optimally utilized.

  In addition, at least the test module and the test technology module have a double floor, and the test equipment and / or supply line support elements are installed in a free space formed by the double floor below the double floor or upper floor. It is possible that at least the area of the exchange space between the test equipment rows is also provided with a double floor, and it is advantageous if the entire test equipment field has a flat floor inside and outside the test module and the test technology module. It is. A flat floor surface ensures easy movement of humans, especially materials, to and from individual test equipment. Thus, the entire test equipment field has a flat floor formed by a double floor. Only the entrance to the test equipment field, generally the entrance to the test equipment building, is provided with ramps or passages to bridge the level difference between the raised floor and the surrounding floor level. The hall can be used again in another way without limitation after dismantling of the test equipment field. No remodeling measures related to floor removal, such as removal of dimples, are necessary. Optionally, a hole with a correspondingly lowered floor can be provided so that the raised floor of the double floor is at the level of the surrounding floor. Thus, the inclined portion is not necessary.

  Advantageously, a test equipment hole having at least one hole wall with at least one opening or window for incident light and at least one modular test equipment, test equipment row and / or test equipment field as described above, The control room module is arranged such that at least the second side wall and / or the lateral wall having the window element is in contact with the opening so that external light is incident on at least the control room module. Thus, the space available in the hall is optimally used. A control room module is placed in contact with the back surface of each test device or each test device row, and this back surface faces the hole wall, ensuring sufficient space for the control room module, especially daylight. Yes. Thus, the area between the front surfaces of the test apparatus or the test apparatus row can be used as a replacement space.

  In connection with the configuration and arrangement according to the invention, other test equipment holes similar to those described above are advantageous, in which test modules and / or test technology modules are used for viewing and / or entering window elements and / or Alternatively, the rear lateral wall with the door element is arranged in contact with an opening or hole wall formed as a window, the lateral wall has a distance K from the hole wall, and there is a control room area between the hole wall and the lateral wall. It has come to occur. Depending on the hall or building configuration, individual control room modules can be omitted. The area behind the test equipment serves as a control room area and daylight is guaranteed. The test equipment is placed or closed inside various modules with corresponding air supply and exhaust, and noise generation in the hall does not exceed the required level.

  A test equipment hall having at least one modular test equipment, a test equipment row and / or a test equipment field is advantageous, the control room module and / or the control room area in the center of the hall being a test module or a test technology module. It is arranged such that the front side wall is arranged in the region of the hole wall, the hole wall having an entry / exit element for loading or unloading the test module or the test technology module. Daylight can be introduced through the central light well in the hall ceiling if necessary. A common control field for all test equipment occurs in the center of the hole between the test equipment rows.

  Furthermore, at least one second hall floor is provided above the first test equipment field, and the second test equipment field can be installed on the hall floor. The second hall floor and the other hall floors are arranged one above the other as in a high-rise building. In this way, two or more test device fields with corresponding spread can be placed on the bottom of the hole. In order to reach the test equipment field in the upper level, an inclined portion or the like is indispensable in or in the hole.

  Eventually, a supply and / or discharge bus is provided, which is formed as a supply network and as part of technical building equipment, through which various building modules are supplied with air, coolant, cooling water, voltage It is advantageous if auxiliary substances such as can be supplied simultaneously and / or the exhaust can be discharged. Corresponding central supply members, such as a central cooling / cooling water supply, for example, can be used for a plurality of test devices. Depending on the desired concurrency factor GZ, the total power available together for each supply member is available, which is sufficient for regular operation of the test equipment field.

  Furthermore, it is advantageous if the supply bus has a plurality of subranges, which are integrated into the various modules of the test apparatus and together form a supply bus. Supply buses are not separately installed on various building modules. The supply bus is rather a component of each building module and is essentially in its entirety after the various building modules are mounted and installed. The bus system allows supply units (modules) and loads (modules) to be arbitrarily supplemented and used as via a central network. For example, one central exhaust module is provided, and each test module emits exhaust via an exhaust bus, i.e., through a common exhaust network integrated to that extent.

  In this case, it is advantageous if the technical building equipment for supplying operating and auxiliary substances, which are essential for the operation of the test apparatus, are integrated in the various modules of the test apparatus and / or test apparatus field. Thus, the necessary technical building equipment is housed together when constructing the test equipment field. No additional mounting is necessary and need not be considered during disassembly, or even not left at all. All infrastructure parts of the bus are designed so that they can be easily reused elsewhere for later use.

  In addition, at least one power supply unit having one or more transformers is provided, the transformer having one or more terminals for connection to various international voltage networks, the voltages of the various voltage networks It is advantageous if the transformer ensures that the desired voltage is supplied to the test device despite the difference in value. Within the framework of the voltage network bus system and taking into account the simultaneity factor GZ, one common transformer is provided for each of five to six test devices, and there is a correspondingly large number of additional test devices. Transformers are indispensable, in which case they are reticulated or reticulated into one unified voltage bus.

  In the second modified embodiment, it is particularly advantageous if the supply module is arranged above the first test module with each long side being offset by 90 ° relative to this test module. Thus, the dimensional ratio according to the invention can also be achieved by changing the width of each module, and the supply modules are now aligned with each other not with respect to their width but with respect to their length. For the purpose of defining the subject of the invention, it is not important that the length dimension of the supply module is larger than the width dimension. Correspondingly, the required entrances or doors can also be adapted, which are mainly on the side walls.

  Again, since the width of the test modules varies within the test field, it can be additionally confirmed that the supply modules are also aligned with respect to their width.

  In addition, it is advantageous if the width B4 is at least 20% greater than the width B2 or B3, ie the ratio B4 / B2 or the ratio B4 / B3 is at least 3 / 2.5. Thus, two or more test modules are at least partially covered according to their width by one supply module, and the advantages according to the invention are achieved. Additionally or alternatively, a replenishment module and / or additional module for covering may be provided.

  In particular, it is advantageous if the ratio of B4 / B2 or B4 / B3 is equal to 1/1, 5/4, 3/2 or 2/1. In addition to the width ratio for the first modified embodiment, where the supply module is thinner than the test module, in the second modified embodiment, the supply module is formed wider than the test module so that the advantages of the present invention are achieved. You can also keep it. Along with the ratio of B4 to B2 or B3, other ratios such as 9/8, 11/8 or 7/4 are also contemplated. Based on the structure of the test field, it is advantageous if the total width Bp of the test modules and / or test technology modules is equal to the width B4 of the supply modules mounted on them.

  In parallel, the lengths L2, L3 of the test apparatus and / or test technology module are equal to the total length Lv of all supply modules mounted on the front and back thereof or mounted on the test module and / or test technology module. Advantageously, the total length Lv of all the supply modules placed is at least 20% shorter than the length L2, L3 of the test module and / or test technology module. Thus, the advantages pointed out at the beginning with respect to the ratio of L3 or L3 to length L4 or Lv are obtained.

  Other advantages and details of the invention are set forth in the claims and specification and are shown in the figures.

  The test device array shown in FIG. 1a is formed by two test devices 1, 1 '. Each test device has one test module 2, 2 ′ for receiving the specimen, one test technology module 3, 3 ′ for the test technology, and other required supplies such as cooling, combustion air, exhaust, etc. It is made up of three technical supply modules 4, 4 ', 5, 5', 6, 6 '. Each test / test technology module pair has a total width Bp corresponding to the total width Bv of the three supply modules 4, 5, 6 or 4 ', 5', 6 'to be mounted, The second test apparatus 1 ′ can be replenished without any problem in contact with the side walls 2.1, 4.1. Each supply module 4-6 'is not only narrower than the test or test technology modules 2-3, but also shorter or shorter than them. The supply modules 4-6 'are installed in this embodiment with their respective back walls 6.4 flush with the respective back walls 3.4 of the test or test technology modules 2-3'. A deviation of the length A occurs for each of the front surfaces 2.3 to 6.3. That is, this distance A serves as a so-called passage 14 for the purpose of entering and exiting the individual supply modules 4-6 'through the doors 4.5-6.5. Various joints 15.1 to 15.6 have different side walls 6.1 and floors for the purpose of technical connection between the supply modules 4, 5, 6 on the one hand and the test module 2 or the test technology module 3 on the other hand. Provided on the wall 6.9, the bus 11 is supplemented through these joints, and a wide variety of operating and auxiliary materials are exchanged between the individual modules. Each joint 15.1 to 15.6 is at a pre-defined location of each module so that a corresponding operation of the joint is possible without difficulty after assembly.

  According to the embodiment of FIG. 1b, the distance A is somewhat shorter, i.e. in this embodiment the supply modules 4 to 6 'test their respective back walls 6.4 or the respective back walls 3. It is also shifted from 4 and installed. This additionally results in a deviation of the length A1 in the region of the respective back side 2.4 to 6.4 ', which deviation serves for placing or supporting a supply element, for example the exhaust line 11.3. The various supply modules 4 to 6 ′ are coupled to one another via one or more buses 11 as shown here in principle. Various auxiliary and operating materials essential for the test equipment are provided via each bus 11. That is, the various supply modules are reticulated via the bus 11 for the required operating and auxiliary materials.

  The test device array 23 in question according to FIG. 2 has an expanded test device, which has two test modules 2, 2 ′ arranged side by side, the test module for a correspondingly large specimen. This is a double test cell. One test technology module 3, 3 ′ is provided in contact with both test modules 2, 2 ′ or double test cells formed in this way on the left and right. Corresponding to the embodiment of FIGS. 1a, 1b, there are again six supply modules 4-6 ′ on four test or test technology modules 2-3 ′, and three supply modules 4 ′, 5 ′, The total width Bv of 6 ′ corresponds to the total width Bp of the test and test technology modules 2 ′, 3 ′.

  The test apparatus hole 10 shown in FIG. 3 in a perspective view has two test apparatus rows 23 and 23 '. Each test device row 23, 23 ′ is represented in FIG. 1a, from a plurality of test or test technology modules 3, 3 ″, 2, 2 ″ and corresponding supply modules 4, 4 ″ forming each test device. Similar to 1b and FIG. 2, it has a special arrangement. Both test apparatus rows 23, 23 'are arranged in the interior of the hall 10 at a distance R, and a replacement space 9 is guaranteed for the purpose of loading and unloading various test and test technology modules. As shown in the top view of FIG. 4 a, various building modules of the test equipment rows 23, 23 ′ are additionally arranged at a distance Z or Z ′, starting from the replacement space 9 and behind In addition, the entrance 18 or 18 'to the back surface of each test apparatus row 23, 23' is guaranteed. According to FIG. 3, each test device row 23, 23 ′ has a distance K from the partially shown hole wall 10.1 on the back side, ie on the side opposite to the replacement space 9. The free space formed by the distance K in each test device row or in the rear region of each test device 23, 23 'serves to install the control room module 8, 8 "according to the embodiment in the first half of the figure. According to the embodiment in the latter half of the figure, the free space formed by the distance K can also be used as the control room area 8 '' '. The control room area 8 '' 'can be separated from the hall area via a movable partition and a lightweight structural ceiling (not shown). Access to the various test devices is likewise made from this back side via the corresponding door elements 2.6 ', 3.6' according to the side view of FIG. .9, 8.9 ''. The passage 14 in the rear part of the test apparatus row 23 is accessible via a step 25.

  According to FIG. 5a, doors 3.6, 3.6 '' are likewise provided between the control room module 8 '' and each test device. The hole wall 10.1 has one or more windows 10.2, which are in the back of the test apparatus or in the control room module 8, 8 ″ or control room area 8 ′, 8 ′ ″ installed there. Provide daylight. Similarly, two window elements 10.4, 10.4 'and an entrance / exit 10.3 provided with window elements are provided on the front-side hole wall 10.1' for the purpose of introducing and derivation of parts or specimens.

  The entire test equipment field has a double floor 9.7, which is arranged at the same height as the double floor (not shown here) inside the various test or test technology modules 3, 3 ''. The area inside the double floor 9.7, i.e. the area between the floor surface forming the double floor 9.7 and the original hall floor 10.6, may be used to arrange other supply paths in some cases. It can be used supplementarily or as part of the supply bus 11. According to FIGS. 2 and 3, all supply modules are network-connected via a supply bus 11 for the purpose of supplying operating and auxiliary substances to the supply module.

  FIG. 4 a is a top view of the test field or test equipment hole 10. The distances Z, Z 'and the inlets 18, 18' to the rear region of each test device provided thereby are shown in the middle of both test device rows 23, 23 '. According to the embodiment on the left half of the figure, the control room module 8, 8 ″ is installed in the area between the test apparatus rows 23, 23 ′ and the hole walls 10.1, 10.5. Thus, according to the embodiment in the right half of the figure, the free spaces formed by the distance K are formed or used as control room sections 8 'and 8' '', respectively.

  FIG. 4b shows a test equipment hole 10 with a test equipment field 24, similar to FIG. 4a. Unlike the embodiment of FIG. 4 a, the control room module 8, 8 ″ or the control room area 8 ′, 8 ′ ″ are arranged in the area of the hole center 10.8 and various test or test technology modules 2. 3, the front side walls 2.3, 3.3 are only partially shown but are arranged in the region of the hole walls 10.5, 10.5 ′. The hole walls 10.5, 10.5 'mainly have entrance / exit elements 10.9, 10.9' which are only partially shown for carrying in and out each test or test technology module from the outside.

  Both test device rows 23, 23 ′ shown in the side view of the test device hole 10 according to FIG. 5 a are arranged with a distance R on each front surface 3.3, 3.3 ″ of the test or test technology module 3, 3 ″. Has been. The double bed 9.7 is continued as a double bed 3.7 in the test or test technology module 3, 3 ″ at the corresponding height as well. The free space 3.8 formed by the double floor 3.7 can be used to install other supply paths. Control room modules 8, 8 ″ are provided in the area behind both test device rows, ie between the test device rows and the respective hole walls 10.1, 10.5. Each control room module 8, 8 ″ is accessible via doors 8.9, 8.9 ″ and each test or test technology module 3, 3 ″ is accessible via another door 3.6 ″. In the control room module 8 ''.

  In the embodiment of FIG. 5b, the test equipment hole of FIG. 5a is formed in two stories with two test equipment fields arranged one above the other. In addition to the first hall floor 10.6, a second hall floor 10.7 is provided above the first test equipment field 24, and a second test equipment field 24 'is installed on the second hall floor. Yes.

  FIG. 6 is a perspective view of a building module as an example, but also used for a test technology module. The building module 2 has two side walls 2.1, 2.2, two lateral walls 2.3, 2.4, one floor wall 2.9 and one ceiling wall 2.10. The building module 2 has a width B2 of 3.657 m (12 feet), a length L2 of 9 m, and a height H2 of 3.50 m. A work door or work door 7.2 for carrying in and out the building module 2 is provided on the front lateral wall 2.3. The rear lateral wall 2.4 on the opposite side is provided with a door 2.6 and a window 2.5 for entry and observation purposes, starting from a control zone 8 'or control room module 8 not shown here. It has been. The building module 2 has the double floor 2.7, which forms a free space 2.8 for the supply path with respect to the floor wall 2.9. The building module 2 shown here is formed as a test module. In the test module 2, a specimen 16, a power take-out device 16.1 and an exhaust facility 16.2 are arranged. The exhaust system 16.2 or the exhaust pipe is connected via a joint 15.2 to the supply module 4 arranged thereon and formed as an exhaust module or an exhaust path extending therethrough.

  FIG. 7a shows an expanded test module consisting of two individual building modules forming a double test cell. The adjacent side walls 2.2, 2.1 ′ (not shown) have been removed, and a specimen 16 having four power take-out devices 16.1 to 16.1 ′ ″ and an exhaust facility 16.2 are provided. Double floors for mounting are possible. The test module 2 formed in this way corresponds to a structure consisting of two building modules in the same way, with two work doors or work doors 7.2, 7.2 ′ and two entrance doors 2.6, 2.6 ′. And two window elements 2.5, 2.5 ′.

  According to FIG. 7b, each adjacent side wall 2.2, 2.1 'has not been removed. Each side wall 2.2, 2.1 'has a corresponding insertion hole T for the purpose of laying the drive system and exhaust system of the specimen from one test cell to the adjacent test cell.

  The building module 4 according to FIG. 8 has a marine container with two side walls 4.1, 4.2, two lateral walls 4.3, 4.4, one floor wall 4.9 and one ceiling wall 4.10. Or it is formed as a freight container. This container is an exemplary size for the supply module. The supply module thus formed has a width B4 of 2.438 m (8 feet), a length L4 of 6.096 m (20 feet), and a height H4 of 2.590 m (8 feet & 6 feet). An exhaust facility 17 is arranged inside the exhaust module 4 shown here, and an exhaust pipe 17.1 having an exhaust flange 17.2 connectable to a hole ceiling not shown here is provided on the ceiling wall for the purpose of exhaust discharge. 4.10 is provided. An entrance door 7.4 provided on the front lateral wall 4.3 is accessible via a passage 14 (not shown).

  FIG. 9 is a principle diagram of the cooling or cooling water bath 11. The cooling water bath 11 serves to supply four test devices 1-1 ″ ″ each having two loads 13.4-13.9, 13.4 ', 13.5'. Three coolers or cooling towers 13.1 to 13.3 are provided for the purpose of providing and cooling the coolant. The cooling towers 13.1 to 13.3 and the loads 13.4 to 13.5 ′ are coupled to each other via a feed line 11.1 and a return line 11.2 to form a cooling water bath 11. Yes. The cooling power provided by the three coolers 13.1 to 13.3 is required by all the test equipments 1-1 ′ ″, providing a smaller number of coolers than the test equipment considering the simultaneity factor Must be done. In practice, not all test equipment will require 100% output of one or more coolers simultaneously.

  FIG. 10 shows the principle of a low-voltage bus with two transformers 12, 12 'and ten loads 12.1 to 12.5'. One transformer basically serves only to supply four loads 12.1 to 12.5 (see solid line). When the two transformers 12 and 12 'are connected in a network, 10 loads 12.1 to 12.5' can be supplied by the two transformers 12 and 12 'instead of 8 loads in consideration of simultaneity. .

  FIG. 11 shows the principle of the test apparatus hole 10 according to FIG. 5a, in which the hole 10 covers not only the complete test apparatus field 24 but the replacement space 9 and a part of each test apparatus row 23, 23 ′ with a roof 26. Yes. Each building module 3, 3 ", 4, 4" takes the role of a hole wall and is formed as an outdoor container for use in an outdoor area. In parallel, the control room module can be connected to each test module 2 or to the test technology module 3 on each back side, that is to say on the side opposite to the replacement space 9, in accordance with FIG. Each passage 14, 14 'has a protective fence 14.1, 14.1'.

  FIG. 12 shows the principle diagram of the 3/2 width ratio B4 / B2 or B4 / B2 and the interrelationship resulting therefrom. The test module 2 having the width B2 is replenished in the lateral direction by the replenishment module 32 having the width B32, and the width Bp ′ obtained as a whole coincides with the width Bv ′ of the two supply modules 4. Alongside that, the additional module 34 is arranged beside the replenishment module 32, the additional module 34 has a width B 34, and both the width B 32 and the width B 34 become the width B 2 of the test module 2. In that case, the three supply modules as a whole have the same width Bv as the test module 2, the replenishment module 32 and the additional module 34, ie the width Bp.

  In the embodiment of FIG. 13, the supply modules 4, 4 ', 5, 6 are aligned with respect to their length L4, and the total length Lv generally corresponds to the length L2 or L3 of the test modules 2,3. The change of the total length Lv of the supply modules 4, 4 ′, 5, 6 is via either the length L 4 of each supply module 4, 4 ′, 5, 6 or the number of supply modules 4, 4 ′, 5, 6. Can be guaranteed.

  The width ratio according to the invention between the test modules 2, 3 and the supply modules 4, 4 ', 5, 6 is the individual width B4, B4', B5, B6 of each supply module 4, 4 ', 5, 6 Has been materialized through. FIG. 13 shows various width ratios. For this reason, the scales 19 are provided on the front surfaces 2.3 and 3.3 of the test modules 2 and 3, respectively, and the scale division is one fifth (1/5) of the width B2 or B3 of the test modules 2 and 3. It matches. The illustrated width ratios are B4 / B2 = 2/1, B5 / B2 = 4/5, B6 / B2 = 7/10, and B4 '/ B2 = 1/1. Alternatively, all width ratios can be copied, and the desired modular dimensions can be achieved for various supply and test module combinations, depending on the available supply modules.

  The door element 5.5 for the supply module 5 is located on the lateral wall 5.4 for the purpose of free entry space.

It is a perspective view of the expanded test apparatus. FIG. 6 is a perspective view of an expanded test apparatus having a deviation A1. 1 is a perspective view of one test apparatus having two test modules. FIG. It is the figure which looked at one test equipment field which has two test equipment rows from the top. Fig. 4 shows a test equipment hole with a test equipment field according to Fig. 3; 1 shows a test equipment hall having a test equipment field and a central control room. 4b is a side view of the test equipment hole according to FIG. It is a side view of the test apparatus hall | hole which has a 2nd hole ceiling. A test module having a specimen is shown. Fig. 3 shows an expanded test module with a specimen. 2 shows an expanded test module having a specimen and a septum. It is a perspective view of the supply module which has exhaust equipment. It is a principle diagram of a cooling water bath. It is a principle diagram of a low voltage bus. It is a principle figure regarding a test equipment hall. It is a principle figure of width ratio. Fig. 2 is a principle diagram according to Figs.

Explanation of symbols

DESCRIPTION OF SYMBOLS 1 Modular test equipment 1 'Modular test equipment 1''Test equipment 1''' Test equipment 2 Building module, 1st test module 2 '2nd test module 2''Test module 2.1 Side wall 2.1' Side wall 2 Side wall 2.2 'Side wall 2.3 Side wall, front side, front side wall 2.3' Side wall, front side 2.4 Side wall, back wall, rear side wall 2.4 'Side wall, back wall 2.5 Window opening, window Element 2.5 'Window opening, window element 2.6 Door opening, door element 2.6' Door opening, door element 2.7 Double floor 2.8 Free space 2.9 Floor wall 2.10 Sky Wall, ceiling wall 3 Building module, 1st test technology module 3 '2nd test technology module 3''test technology module 3.1 Side wall 3.2 Side wall 3.2' Side wall 3.3 Side wall, front 3.3 '' Side wall, front side 3.4 Side wall, back wall 3.4 'Side wall 3.5 Window opening, window element Door opening, door element 3.6 'Door opening, door element 3.6''Door opening, door element 3.7 Double floor 3.8 Free space 3.9 Floor wall 3.10 Top wall, ceiling Wall 4 Building module, first supply module 4 'Building module, supply module, exhaust module 4''Building module, supply module, exhaust module 4.1 Side wall 4.2 Side wall 4.3 Side wall, front side 4.4 Side wall 4. 5 Door element 4.9 Floor wall 4.10 Top wall, ceiling wall 5 Building module, supply module 5 'Supply module 5.1 Side wall 5.2 Side wall 5.3 Side wall, front side 5.4 Side wall 5.5 Door element 6 Building module, supply module 6 'Building module, supply module 6.1 Side wall 6.2 Side wall 6.3 Side wall, front side 6.4 Side wall, back wall 6.5 Door element 6.9 Floor wall 7.2 Work door, work A 7.2 'work door, work door 7.3 work door 7.4 door 7.5 door 7.6 door 8 building module, control room module, control room area 8' control room area 8 '' control room module 8 '''Control room area, test equipment area 8.1 Side wall 8.2 Side wall 8.3 Side wall 8.4 Side wall 8.5 Window opening, window element 8.6 Door opening, door element 8.8 Window element 8 .9 Door for entry purpose 8.9 '' Door for entry purpose 9 Replacement space 9.1 Floor surface 9.7 Double floor 10 Test equipment hall 10.1 Hole wall 10.1 'Hole wall 10.2 Opening, Window 10.3 Hall entrance and exit 10.3 'Hall entrance and exit 10.4 Window element 10.4' Window element 10.4 '' Window element 10.4 '''Window element 10.5 Hall wall 10.5' Hall wall 10.6 1st hole floor 10.7 2nd hole floor, hall ceiling 10 .8 Hall center 10.9 Entrance element 10.9 'Entrance element 11 Supply bus, supply network, cooling water bus, low voltage bus 11.1 Feed line 11.2 Return line 11.3 Exhaust line 12 Transformer 12 'transformer 12.1 load 12.2 load 12.3 load 12.4 load 12.5 load 12.1' load 12.2 'load 12.3' load 12.4 'load 12.5' load 13 .1 Cooler 13.2 Cooler 13.3 Cooler 13.4 Load 13.5 Load 13.6 Load 13.7 Load 13.8 Load 13.9 Load 13.4 'Load 13.5' Load 14 Passage , Bridge 14 'Passage, Bridge 14.1 Protective fence 14.1' Protective fence 15.1 Joint 15.2 Joint 15.3 Joint 15.4 Joint 15.5 Joint 15.6 Joint 16 Specimen 16.1 Power take-out device 16.1 'Power take-out Equipment 16.1 '' Power take-out device 16.1 '''Power take-out device 16.2 Exhaust equipment 17 Exhaust equipment 17.1 Exhaust pipe 17.2 Exhaust flange 18 Inlet 18' Inlet 19 Scale 23 Test equipment row 23 'Test Equipment row 24 Test equipment field 24 'Test equipment field 25 Stairs 25' Stairs 26 Roof 32 Replenishment module 34 Additional module A Distance, deviation A1 Distance, deviation Bp Total width Bp 'Total width Bv Total width Bv' Total width B2 width B3 B4 width B32 width B34 width H2 height H3 height H4 height K distance L2 length L3 length L4 length Lv length R distance T insertion hole Z distance Z 'distance

Claims (42)

  Two side walls (2.1, 2.2, 4.1, 4.2) and two lateral walls (2. 3, 2.4, 4.3, 4.4) and a modular test device (1) consisting of at least two building modules (2, 4) formed as a portable container, At least one building module (2) of length L2 and width B2 formed as a first test module for receiving is provided and the length formed as a first supply module for receiving supply technology At least one building module (4) of L4 and width B4 is provided, the first supply module (4) is disposed above the first test module (2), and the length L4 is greater than the length L2. The test equipment (1) For the purpose of charging, at least one third building module (3) is provided, which is formed as a first test technology module for receiving the test technology, and the first test technology module (3) has two side walls ( 3.1, 3.2) and two lateral walls (3.3, 3.4) joining the side walls (3.1, 3.2), a length L3 and a width B3, the first test technique The module (3) can be installed with the side wall (3.1) in contact with the side wall (2.2) next to the first test module (2), and the width B4 is smaller than the width B2 or B3. Modular test equipment to do.   Two side walls (2.1, 2.2, 4.1, 4.2) and two lateral walls (2. 3, 2.4, 4.3, 4.4) and a modular test device (1) consisting of at least two building modules (2, 4) formed as a portable container, At least one building module (2) of length L2 and width B2 formed as a first test module for receiving is provided and the length formed as a first supply module for receiving supply technology At least one building module (4) of L4 and width B4 is provided, the first supply module (4) is disposed above the first test module (2), and the length L4 is greater than the length L2. Is shorter, the width B2 is less than 3m Large, modular testing and a width B4 is smaller than the width B2.   Modular according to claim 1 or 2, characterized in that the width B4 is at least 20% smaller than the width B2 or B3, ie the ratio B4 / B2 or the ratio B4 / B3 is at most 2 / 2.5. Test equipment.   Modular test device according to any one of the preceding claims, characterized in that the ratio of B4 / B2 or B4 / B3 is equal to 2/3, 2/4 or 2/5.   Any of the preceding claims, characterized in that the total width Bp of the test module (2) and / or the test technology module (3) is equal to the total width Bv of all supply modules (4) mounted on them The modular test apparatus according to claim 1.   Two, three, four or five supply modules (4, 5, 6) can be installed on the first test technology module (3) and on the first test module (2) A modular test apparatus according to any one of the preceding claims.   Modular test device according to any one of the preceding claims, characterized in that the length L4 is at least 20% shorter than the length L2 or the length L3.   Modular test device according to any one of the preceding claims, characterized in that the length L3 is equal to the length L2 and the width B3 is equal to the width B2.   Each building module (2, 3, 4) has one top wall (2.10, 3.10, 4.10) and one floor wall (2.9, 3.9, 4.9) , At least one joint (15.1, 15.2) predefined in position and / or type is provided on the side wall (2.1, 2.2, 3.1, 3.2, 4.1, 4. 2), and provided on the top wall (2.10, 3.10, 4.10) and / or the floor wall (2.9, 3.9, 4.9). Modular testing device according to any one of the preceding claims, characterized in that the operating substance and auxiliary substance lines can be guided from the building module (2) to the adjacent building module (3, 4).   10. Modular testing device according to claim 9, characterized in that the joints (15.1, 15.2) are formed as recesses or flanges that can be covered.   One lateral wall (2.3, 3.3, 4.3) is formed as the front lateral wall, and one lateral wall (2.4, 3.4, 4.4) is formed as the rear lateral wall. The lateral walls have working doors (7.2, 7.3) and / or doors (7.4, 7.5, 7.6) for loading and / or circulating modules. A modular test apparatus according to any one of the preceding claims.   One building module formed as a control room module (8) is subjected to the first test so that the first side wall (8.1) of the control room module (8) contacts the rear lateral wall (2.4, 3.4). 6. The module according to claim 1, wherein the module can be installed in contact with the rear lateral wall (2.4, 3.4) of the module (2) and / or the first test technology module (3). Modular test equipment.   Each rear lateral wall (2.4, 3.4) and a corresponding first side wall (8.1) have at least one window opening (2.5, 3.5, 8) for visual and / or entry purposes, respectively. . 5) and / or a door opening (2.6, 3.6, 8.6).   The control room module (8) has a window element (8.5) on at least the second side wall (8.2) and / or the side wall (8.3, 8.4) for the purpose of passing outside light and / or persons. 14. Modular test device according to claim 12 or 13, characterized in that it comprises a door element (8.6).   Modular according to any one of the preceding claims, characterized in that the building module for the supply module (4) has a width B4 of 2.438 m, a length L4 of 6.096 m and a height H4 of 2.590 m. Test equipment.   The building module for the test module (2) and / or the test technology module (3) has a width B2 = B3 of 3.048m to 4.267m, a length L2 = L3 of 7.0m to 9.0m, and a height H2 = H3. The modular testing device according to any one of the preceding claims, characterized in that is from 3.0 m to 4.0 m.   Modular testing device according to any one of the preceding claims, characterized in that the building module for the test technology module (3) and the test module (2) is self-supporting over its entire length.   The supply module (4) and the test module (2) and / or the supply module (4) and the test technology module (3) move the front lateral wall (4.3, 2.3, 3.3) by a horizontal distance A. Tested before and / or after the supply module (4), being offset and / or installed with the rear lateral wall (4.4, 2.4, 3.4) in the same plane or offset Modular test device according to any one of the preceding claims, characterized in that a passage (14) is formed on the module (2) or the test technology module.   Another building module formed as a second test module (2 ′) is provided, the second test module (2 ′) being next to the first test module (2) and its side wall (2.1). The modular test apparatus according to claim 1, wherein the modular test apparatus can be installed in contact with the apparatus.   The first test module (2) and the second test module (2 ′) can be formed as a common large test module, and the side walls (2.1, 2.2 ′) of each test module (2, 2 ′) 20. Modular test device according to claim 19, characterized in that it is at least partly removable and / or has an insertion hole T.   One building module is formed as a second test technology module (3 ′), and the second test technology module (3 ′) is next to the second test module (2 ′) on its side wall (2.1 ′). 21. Modular testing device according to claim 19 or 20, characterized in that it can be installed in contact.   One building module is formed as a supplement module (32) for the test module (2) or the test technology module (3), and the width B2 or B3 of the test module (2) or the test technology module (3) is defined as the width B32. Any of the preceding claims, characterized in that the replenishment module (32) has a width B32 such that it is twice, three times or four times the width B4 of one supply module (4) in total. The modular test apparatus described.   One building module is formed as an additional module (34) to the replenishment module (32), and the width B32 and the width B34 are combined into the width B2 or width B3 of one test module (2) or test technology module (3). 23. Modular testing device according to claim 22, characterized in that the additional module (34) has a width B34.   In a test device field comprising at least one modular test device according to any one of the preceding claims, the plurality of modular test devices (1, 1 ') comprises side walls (2.1, 2.1', 3.2, 3.2 '), arranged in a row to form a test device row (23).   A distance Z is provided between the side wall (2.1) of the test module (2) of the modular test apparatus (1, 1 ') and the side wall (3.2') of the test technology module (3 '), and the rear side wall 25. Test device field according to claim 24, characterized in that an inlet (18) for a control room module (8 ') arranged in contact with (2.4', 3.4 ') is formed.   At least two test device rows (23, 23 ′) are provided, the test device row (23, 23 ′) being the front lateral wall (2.3, 2.3 ′) of the test module (2, 2 ″). ) Is arranged as a distance R exceeding 2 m, and a replacement space (9) for loading and unloading the test module (2, 2 ″) is guaranteed between the test modules (2, 2 ″). 26. A test equipment field according to claim 24 or 25, characterized in that   At least the test module (2) and the test technology module (3) have a double bed (2.7, 3.7) and below the double bed (2.7, 3.7) the double bed (2 , 3.7) can be installed in the free space (2.8, 3.8) formed by the test device and / or the supply line support element, and at least the test device row (23, 23 ′) ) Is also provided with a double floor (9.7) in the area of the interchange space (9) between the test module (2) and the test technology module (3). 27. Test device field according to claim 24, 25 or 26, characterized in that it has a smooth floor surface (9.1).   12. At least one hole wall (10.1) having at least one opening (10.2) for incident light, at least one modular test device (1) according to any one of the preceding claims, a test device In a test equipment hall (10) having a row (23) and / or a test equipment field (24), the control room module (8) has at least a window element so that external light is incident on at least the control room module (8). A test apparatus characterized in that the second side wall (8.2) and / or the side wall (8.3, 8.4) having (8.8) are arranged in contact with the opening (10.2). hole.   28. At least one modular wall (10.1) according to any one of claims 1 to 27, at least one hole wall (10.1) having at least one opening (10.2) for incident light, In a test equipment hole (10) with one test equipment train (23) and / or one test equipment field (24), the test module (2) and / or the test technology module (3) can be viewed and / or Rear lateral wall (2.4, 3.4) with window element (2.5, 3.5) and / or door element (2.6, 3.6) for entry into the window (10.2) The lateral wall (2.4, 3.4) has a distance K from the hole wall (10.1) and is arranged in contact with the opening or hole wall (10.1) formed as 10.1) and lateral wall (2.4, 3.4) Test device hole, characterized in that is adapted to control chamber region (8) is formed between the.   In a test equipment hall (10) having at least one modular test equipment (1), one test equipment train (23) and / or one test equipment field (24) according to any one of the preceding claims. The control room module (8, 8 ″) and / or the control room area (8 ′, 8 ′ ″) in the center of the hall (10.8) is the front of the test module (2) or the test technology module (3) The side walls (2.3, 3.3) are arranged in the region of the hole walls (10.2, 10.5), the hole walls (10.2, 10.5) being the test module Alternatively, a test apparatus hall having an entrance / exit element (10.9) for loading and unloading the test technology module.   In addition to the first hall floor (10.6), at least one second hall floor (10.7) is provided above the first test equipment field (24), on the second hall floor the second hole floor (10.6). 31. Test equipment hole (10) according to claim 28, 29 or 30, characterized in that a test equipment field (24 ') can be installed.   A supply and / or discharge bus (11) is provided which is formed as a supply network and as part of technical building equipment, through which various building modules (2, 3, 4, 5, 32. The test equipment field or test equipment hall according to any one of claims 24 to 31, characterized in that an auxiliary substance and / or a voltage can be simultaneously supplied to 6).   The supply bus (11) has a plurality of partial ranges, which are integrated into the various modules (2, 3, 4, 5, 6) of the test apparatus and together form the supply bus (11) 33. The test equipment field of claim 32, wherein:   34. Test equipment field according to claim 32 or 33, characterized in that the supply bus (11) is configured to supply air, coolant, cooling water, voltage and / or exhaust to various modular test equipment. .   Technical building equipment for supplying operating and auxiliary substances essential for the operation of the test equipment (1) is integrated in the various modules of the test equipment (1) and / or test equipment field (24) A modular test apparatus or test apparatus hole according to any one of the preceding claims, characterized in that   At least one power supply unit having one or more transformers (12) is provided, the transformer having one or more terminals for connection to various international voltage networks, Modular test device according to any one of the preceding claims, characterized in that the transformer ensures that the desired voltage is supplied to the test device despite the difference in voltage value.   Any of the preceding claims, characterized in that the supply module (4, 5, 6) is arranged above the first test module (2) with each long side being shifted by 90 ° relative to this test module. A modular test equipment, test equipment field or test equipment hall according to claim 1.   38. Device according to claim 37, characterized in that the width B4 is at least 20% greater than the width B2 or B3, i.e. the ratio B4 / B2 or the ratio B4 / B3 is at least 3 / 2.5.   40. Device according to claim 37, 38 or 39, characterized in that the ratio B4 / B2 or B4 / B3 is equal to 1/1, 5/4, 3/2 or 2/1.   40. Still 39, 39 according to claim 37, characterized in that the total width Bp of the test module (2) and / or the test technology module (3) is equal to the width B4 of the supply module (4) mounted on them. apparatus.   The length L2, L3 of the test device (2) and / or test technology module (3) is equal to the total length Lv of all supply modules (4) mounted on the front and back thereof 37. A device according to 37, 38, 39 or 40.   The total length Lv of all supply modules (4) mounted on the test module (2) and / or test technology module (3) is the length L2 of the test module (2) and / or test technology module (3), 41. Apparatus according to claim 37, 38, 39 or 40, characterized in that it is at least 20% shorter than L3.

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