Technical Field
[0001] The invention relates to the construction, and in particular it deals with a one-story
multiple-span modular industrial building which may be used in various industries
such as mechanical engineering, construction industry, food and light industries,
for warehouses, storage facilities and various agricultural projects.
Background of the Invention
[0002] One-story industrial buildings with the span- type lay-out and with reinforced concrete,
steel or miscellaneous load-bearing framings and panel enclosure structures are preferably
used nowadays for the industrial construction.
[0003] These industrial buildings feature comparatively small size of spans and post spacing
so that effective utilization of production areas for the accommodation of production
equipment and optimum arrangement of such equipment are restricted. Load from crane
equipment in such buildings is generally transmitted to framing structures thus resulting
in their heavy weight, limiting further increase in the span and post spacing and
hampering engineering requirement and modernization of production facilities without
substantial investments in the reconstruction of the construction part of buildings.
[0004] Known in the art are one-story multiple-span modular industrial buildings (Arkhitektura
grazhdan- skikh i promyshlennykh zdanii, Moskva, Stroiizdat, 1986, pp. 74-75. A module
of the building includes foundations, posts, roof structures supported by the posts,
and crane equipment. Traveling bridge cranes are mainly used in such buildings as
handling and hoisting devices, the crane load being transmitted to the building framing.
The need to provide crane tracks (crane beams, rails) calls for a large consumption
of materials (steel, reinforced concrete) and labour effort for regular crane track
lining during operation of buildings.
[0005] Zones inaccessible for servicing with the crane equipment that cannot be used for
the accommodation of production equipment are formed along longitudinal center-lines
of each line of posts. In addition, large size of traveling bridge cranes calls for
an increase in height of industrial buildings.
Summary of the Invention
[0006] The object of the present invention is to provide such a one-story multiple-span
modular industrial building wherein independent designing of its structural and technological
portions would create a shop space with widely-spaced posts, whose areas and volumes
would be sufficient for technological and structural production layout yielding themselves
easily to subsequent updating and replacement of technological equipment.
[0007] The above object is accomplished by that in a one story multiple-stage modular industrial
building in which each module includes foundations, posts, roof structures supported
by the posts, and crane equipment, according to the invention, the posts within each
module are installed in such a manner as to form four cells square-shaped in the plan
view which are positioned pair-wise symmetrically with respect to the central axes
of the module, the crane equipment comprising a tower crane installed at the center
of the module, secured to the foundation and having its vertical mast provided with
a horizontal land for supporting a roof structure of the cells.
[0008] According to one embodiment of the invention, a monorail is preferably mounted in
each module, on the underside of the roof structure, the monorail being in the form
of a ring coaxial with the vertical mast of the tower crane, support rollers supported
by the monorail being provided at the end of a crane boom.
[0009] According to another embodiment of the invention, in which the tower crane is provided
with ac counterweight, a monorail in the form of a ring is preferably mounted on the
underside of the roof structure coaxially with the vertical mast, the counterweight
having support rollers engageable with the monorail, the boom and counterweight being
connected to the vertical mast by means of pivotal joints for rotation in a vertical
plane. The tower crane boom is preferably provided with an extensible section.
[0010] The abovedescribed construction of modules of the building makes it possible to obtain
a hall-type building with a small number of supports as the posts of each cell are
only provided at the corners of the tower crane.
[0011] The provision of the crane equipment in the form of the tower crane rigidly mounted
on a foundation makes it possible to eliminate loads from the crane equipment on the
building framing and to use its vertical mast for taking up load from the roof structure
of the building. All this allows material usage in the building to be decreased and
its structure made lighter in weight whereby the post spacing can be increased. The
latter allows optimum conditions to be provided for the arrangement of production
equipment with a fuller utilization of production areas and reduction of the building
area for unit of production capacity since the boom of the tower crane can be used
during rotation for servicing the zones of all four cells, and the areas of the zones
that cannot be serviced by the crane are reduced. All this makes it possible to erect
the building structures irrespective of production facilities accommodated therein
and without capital investment in further reconstruction for modernizing and replacement
of production equipment accommodated in the building.
In addition, this construction of each module
makes it possible to provide modules with different post spacings and height so that
buildings of various configurations and overall dimensions can be erected to suit
the desired lay-out scheme.
[0012] The provision of the ring-shaped monorail mounted on the underside of the roof structure
for supporting the boom or counterweight makes it possible to lower loads on the crane
mast, increase lifting capacity of the crane and provide more favourable conditions
for operation of the crane.
[0013] The provision of the crane boom with an extensive section allows the zone serviced
by the tower crane of each cell of the module to be enlarged, and loads can also be
transferred to the neighbouring modules.
Brief Description of the Drawings
[0014] The invention will now be described with reference to specific embodiments illustrated
in the accompanying drawings, in which:
Figure 1 is a general view of a fragment of an industrial building according to the
invention, a plan view;
Figure 2 is a sectional view taken along line II--11 in Figure 1;
Figure 3 is a detail of attachment of a boom to a vertical mast of a tower crane;
Figure 4 one of modules of the building shown in Figure 1 having a monorail for supporting
a tower crane boom mounted on the underside of a roof structure, a plane view;
Figure 5 is a sectional view taken along line V-V in Figure 4;
Figure 6 is a detail A in Figure 5, an enlarged view;
Figure 7 is another embodiment of a module of a building having a monorail for supporting
a counterweight of a tower crane mounted on the underside of a roof structure, a plan
view;
Figure 8 is a sectional view taken along line VIII- -VIII in Figure 7;
Figure 9 is a detail B in Figure 8, an enlarged view;
Figure 10 a view along arrow C in F gure 9;
Figure 11 is an embodiment of a support on a counterweight;
Figure 12 is a detail D in Figure 8, an enlarged view;
Figure 13 is a sectional view taken along line XIII-XIII in Figure 12;
Figure 14 is ditto of Figure 13, under the action of load on the crane.
Best Mode for Carrying Out the Invention
[0015] A one-story multiple-span modular industrial building is made up of modules 1 (Figure
1) each having a foundation 2, posts 3, a roof structure 4 (Figure 2) supported by
the posts 3, and a crane equipment 5. 1 Each module 1 (Figure 1) of the building is
formed by four cells 6 square-shaped in the plan view which are positioned pairwise
symmetrically with respect to central axes 7 of the module 1 and hav a common central
post 8.
[0016] ' The crane equipment 5 (Figure 2) positioned at the center of the module comprises
a tower crane secured to the foundation 2 and has a vertical mast 9 which is the central
post 8 of the module 1 and which has a horizontal land 10 for supporting the roof
structure 4 of the cells 6.
[0017] The roof structure 4 of each cell 6 is in the form of a conventional structure.
[0018] A boom 11 of the tower crane is located under the roof structure 4 and is installed
on a table 12 (Figure 3) mounted for rotation through 360° on the vertical mast 9
in any appropriate known manner, e.g. by means of rollers supported by a stationary
support ring 13.
[0019] To reduce load on the vertical mast 9, i.e. on the central post 8 of the module 1,
a monorail 14 (Figures 4,5) is mounted on the underside of the roof structure 4 in
each module 1, the monorail having the I-section (Figure 6) and being attached to
the roof structure 4 by any appropriate known means, e.g. by means of bolts 15.
[0020] The monorail 14 (Figure 4) is in the form of a ring coaxial with the vertical mast
9 of the tower crane.
[0021] A support 17 is mounted at the end of the boom 11 by means of seamless joints and
carries support rollers 18 supported by the lower flange of the monorail 14 and a
known per se drive 19 for rotating the support rollers 18.
[0022] The monorail 14 is made with a radius equal to the distance from the axis of rotation
of the boom to the axis a-a of the support rollers 18.
[0023] If the tower crane has a counterweight 20 as shown in Figure 7, an auxiliary support
is also provided on the underside of the roof structure 4 in the form of a monorail
21 shaped as a ring coaxial with the vertical mast 9 and attached by any appropriate
known means to the roof structure 4.
[0024] The counterweight 20 (Figures 9,10) carries a movable support 22 which may have a
single roller 23 having its axle installed in a mounting arm 24 secured to the counterweight
20 or a plurality of rollers 25 (Figure 11) mounted along an arc of a radius corresponding
to the radius of the ring of the monorail 21, the radius of the ring of the monorail
21 corresponding to the distance from the axis of rotation of the boom of the tower
crane to the axis b-b of the movable support.
[0025] One roller 23 or a plurality of rollers 25 are engageable with the monorail .21 during
movement of the counterweight 20 upwards (during lifting of a load by the crane).
If there is no load suspended from a boom hook, a space 26 is defined between the
movable support 22 and the monrail 21.
[0026] The boom 11 (Figure 12) and the counterweight 20 are connected to the revolving table
12 of the vertical mast 9 by means of pivotal joints 27 of any appropriate known type
which allow the boom 11 and counterweight 20 to rotate in a vertical plane so as to
ensure the engagement of the support 22 with the monorail 21 only if there is a load
at the crane hook.
[0027] The boom 11 and the counterweight 20 are supported by means of cables 28 connected
to struts 29. The struts 29 are attached by means of pivotal joints 30 to the revolving
table 12. The struts 29 having their upper portions connected to a cage 31 put on
a top part 32 of the vertical mast 9 and having movable supports 33 (Figure 13) in
the form of rollers mounted in a known per se manner on the cage 31 on the side of
each strut 29, and a movable support 34 also in the form of a roller mounted on the
cage 31 an on the side of the boom 11 of the crane. A space 35 is defined on the side
of the counter weight 20 between the top part 32 of the upper support and the cage
31.
[0028] The boom 11 of the tower crane shown in Figures 4 and 7 has an extensible section
36 moving along rollers 37 (Figure 6) mounted on the boom 11 by means of any appropriate
known drive 38, e.g. a rack-and-pinion or hydraulic drive. A lifting hook 39 is provided
at the end of the extensible section 36 so as to supply loads by extending this section
into zones of a module which are outside the range of the boom 11 of the tower crane
or to transfer a load to the neighbouring modules.
[0029] The tower crane is controlled by any appropriate known manner by an operator from
a cabin (not shown in the drawings) provided on the vertical mast of the tower crane
or in any other appropriate manner.
[0030] The structural solutions according to the invention make it possible to provide a
one-story modular industrial building in which each module has a hall-type lay-out
which is most suited for optimum arrangement of production equipment that can be serviced
by a single tower crane within one module.
[0031] The central post 8 (Figure 2) of the module 1 in the form of the vertical mast 9
of the tower crane takes up not only crane loads, but also loads from the roof structure
4 of the cells 6 of the module 1.
[0032] The boom 11 of the tower crane may perform fullswing rotation in any direction through
360' . If it is necessary to transfer loads outside the range of the boom, including
to the zones in the neighbouring modules, the extensible section 36 (Figure 6) is
used which increases the range of the crane.
[0033] Owing to the provision of the support rollers 18 provided on the distal end of the
crane boom supported by the monorail 14 no tilting moment is created by the load acting
upon the hook 39 or 40 of the crane. The crane lifting capacity can be thereby increased.
[0034] When the crane boom is rotated without a load suspended from its hook 40 as shown
in Figure 9, the movable support 22 of the counterweight 20 does not engage the monrail
21, and the space 26 is defined therebetween.
[0035] When a load is suspended from the hook 40, the boom 11 (Figure 12) and the counterweight
20 are rotated in a vertical plane owing to the provision of the pivot joints 27 through
an angle determined by the space 35 defined between the top part 32 of the vertical
meat 9 and the cage 31. The counterweight 20 and the boom 11 are rotated until the
rollers of the movable support 22 come into engagement with the monorail 21. A space
fJ - (Figure 14) is thus defined between the movable support 34 and the top part 32
of the vertical mast 9.
[0036] The amount of space is determined by the formula

, wherein γ is the space 26 between the monorial and the movable support 22, .t is
the horizontal distance from the pivot joint of the counterweight to the axis b-b
of the movable support (Figure 8), h is the vertical distance from the pivot joint
30 to the movable support 34 in the cage 31 (Figure 12).
[0037] When a load is applied to the crane hook, a bending moment imposed by this load is
not transmitted to the crane mast and to the foundation supporting the crane and is
compensated for by a force acting upon the monorail 21 engaged by the movable support
22. This force is directed upwards and does not create any additional load on the
roof structure 4, i.e. it may be taken up by the roof structure without its reinforcement,
and the crane stability against tilting is enhanced so that the lifting capacity of
the crane can be sincreased.
[0038] Therefore, the construction according to the invention makes it possible to erect
industrial buildings withs rational utilization of the building volume owing to minimum
approach range of the tower crane boom to the roof structure, fuller utilization of
production areas with permanent servicing of all production sections and cells of
the module by means of a single tower crane including the zones outside the boom range
owing to the employment of the extensible section. At the end of the day, a possibility
is provided of erecting general-use production buildings of any size using various
three-dimensional combinations of modules in the building.
[0039] The three-dimensional construction of the building according to the invention allows
further modernization and replacement of production equipment to be carried out in
most efficient manner.
Industrial Applicability
[0040] The production buildings of this type can be used in various industries, in the mechanical
engineering, construction industry, food and light industry, for warehouses and storage
facilities and for various agricultural projects.