[0001] This invention relates to a prefabricated modular construction, specially designed
for use as a one- or two-story enclosure or dwelling.
[0002] More specifically, the invention is intended for the construction of one- or two-story
enclosures to be used for commercial purposes.
[0003] The prefabricated modular constructions currently on the market generally require
that additional work be done in advance to prepare the ground, including tbe pouring
of concrete foundations and slabs upon which the prefabricated buildings will rest.
[0004] They also require the use of means of transport, connection, and assembly that are
generally significant in terms of volume, cost, and functional reliability. Large,
three-dimensional buildings that are highly versatile with regard to both location
and placement in service require major means of transportation and special conditions
for travel on highways. Prefabricated concrete buildings require heavy transport equipment
and special assembly capabilities at the site, in addition to the requirements of
the foundation.
[0005] By publication WO-A-8 302 971 it is known a building system for dismountable structures
comprises one or several floor structures which are built up by primary and secondary
beams, the primary beams supporting the loads from the floor structure. At their inner
sides the primary beams are provided with two horizontal load supporting sliding tracks
which are placed one above the other and support a vertical yoke in which the secondary
beam is fastened, the yoke being freely movable to any position along the primary
beam. The secondary beam has a flange supporting a pendulum which is slidable along
the beam and the lower part of which can be moved steplessly along a ceiling which
extends perpendiculary to the secondary beam and is designed so as to support ceiling
elements.
[0006] At present there are no industrialised construction systems on the market that allow
for the reuse of all parts and can be assembled entirely with nuts and bolts; because
of this, certain parts are lost because they must be used in permanent connections,
not to mention the loss of the materials used in the foundation.
[0007] Moreover, conventional prefabricated systems for the construction of buildings and
dwellings generally provide few genuinely satisfactory results. Of particular note
in this regard are the negative aesthetic aspects of the following: externally visible
structural elements; vertical and horizontal reinforcements or supports at the point
of connection of panels and prefabricated parts; predominantly vertical modulation
of panel connections; rigid modular appearance with connotations of an unstable or
temporary structure; poorly-designed reflective metal materials.
[0008] The purpose of this invention is to develop a prefabricated modular construction
that eliminates the disadvantages mentioned above.
[0009] The construction subject of the invention can be assembled without the need for any
excavation or foundation work. Moreover, the construction is designed so that all
of its components can be easily assembled and disassembled, with connections being
made with nuts and bolts, which permits the subsequent reuse of all the components.
Because of the size of said components, they can be easily carried and handled by
two people.
[0010] The construction according to the invention is defined in claim 1 and consists of
an above-ground foundation, a floor, a series of vertical columns, a roof, outside
walls, and a dropped ceiling.
[0011] The above-ground foundation consists of a frame having the same outline as the construction,
and crossbeams which are level with the frame. The columns and the floor rest on this
foundation. Said foundation is designed to be placed on an existing slab and can accommodate
slight gradients in the ground, for which purpose leveling devices are provided for
the other components of the construction.
[0012] The frame consists of metal parts with a right angle cross section, which are fastened
to one another. The crossbeams are inverted T-beams.
[0013] The floor of the construction consists of plates resting on and attached to the foundation.
Said plates are rectangular in shape and rest on the frame. These plates consist of
an upper hardwood layer, a fretted or grooved steel bottom sheet, and a filler of
rigid polyurethane, with the whole surrounded by a frame.
[0014] The vertical columns rest on the foundation and are braced by attachment to the floor
plates and a perimetric header beam. These supports are tubular and have a square
cross-section. The system is made rigid by the use of diagonal struts.
[0015] The foundation of the construction may consist of a number of independent bearing
plates, an outer frame, and upper frames into which the floor plates are fitted.
[0016] Said plates are arranged in a single plane and coincide with the vertices of a grid,
between which vertices are located the points of support of the vertical columns.
In the center of the upper surface of the plates is a more or less hemispherical depression
in the same position as the vertex occupied by the plate.
[0017] The peripheral bearing plates are placed on the outer frame. This frame will preferably
have a more or less C-cross section and will run all the way around the perimeter
of the construction, with the perimetric bearing plates positioned within and on the
bottom.
[0018] The upper frames mentioned above rest on the floor plates. These frames consist of
steel sections approximately equal in length to the side of the grid and of intermediate
connections in the same position as the vertices of said grid. Each of these connections
is positioned on one of the bearing plates. The connections upon which a column rests
have a vertical central opening to allow for the passage of an axial leveling bolt
which projects from the bottom of said column. This bolt rests on the bearing plate
beneath it, in the depression thereof. On the bottom of the remaining connections,
i.e., all those without a column, is a leveling device that rests on the plate immediately
beneath it.
[0019] The bearing plates occupying peripheral positions in the grid, i.e., those located
on the outer frame, will preferably have a C-cross section and will have an external
contour identical to the that of the interior of the sections of the outer frame so
that they can be tightly fastened to them. The walls of these plates and the sections
of the outer frame will have holes that can be aligned for the passage of anchor bolts.
In this way, said bearing plates can also serve as connectors between the consecutive
segments of the outer frame. Bearing plates not positioned at the joints of consecutive
sections of the outer frame and those located in the corners of the outline defined
by said frame do not require said walls.
[0020] Each of the sections comprising the frames consists of two externally contiguous
longitudinal C-sections, the central members of which are joined, the end members
being of different lengths and the lower being the longer of the two. At the ends
of the sections of the frames the central member of the two C-sections are slightly
separated, leaving a space on either side, which is designed to receive one of the
radial lugs of the intermediate connections joining the sections.
[0021] Each of these intermediate connections consists of a cylindrical sleeve from the
exterior of which extend four radial axial wings or lugs arranged in the shape of
a cross. These lugs, as mentioned above, fit into the space at the end of the four
sections of the frames joined by each connection, the sections and wings being connected
by means of bolts passed through the aligned holes.
[0022] The cylindrical sleeves of the intermediate connections can be divided axially into
four identical pieces, each of which extends, from its upright edges, into identical,
perpendicular plates which are contiguous and with the adjacent plates of consecutive
pieces being joined together to form the radial axial wings of these sleeves.
[0023] In the connections without vertical columns the bottom of the sleeve rests on a coaxial
nut, into which is turned a threaded rod that traverses the sleeve and terminates,
at its upper end, in a polygonal head, while the bottom end, which is hemispherical,
rests on the depression of the foundation bearing plate beneath it. The lower end
of the column terminates in a base plate which has a central threaded opening into
which the rod is turned, the upper portion terminating in a head which is accessible
through an opening in the column.
[0024] In the connections without a vertical column, the sleeve is provided, by means of
a second internal sleeve, with a coaxial nut into which is turned a threaded rod,
the lower end of which is more or less hemispherical and which rests on the depression
of the bearing plate beneath it, while the upper end can terminate in a polygonal
head or can have a diametrical slot which is accessible through the sleeve of the
connection. The rod can also have, below the sleeve, a diametrical drilled hole.
[0025] The roof consists of an open latticework of pyramidic modules, which is placed atop
the vertical columns. The latticework consists of bars with a circular cross section,
the ends of which are fastened in connections by means of a vertical bolt. The bars
can be connected because the ends are flattened and are provided with a hole. Atop
the latticework is placed a layer of roofing panels with rigid polyurethane insulation
and peripheral gutters for the collection of water, also made of bent sheet metal.
Lapilli-type volcanic gravel can be spread over the surface of the roofing panels.
The open latticework extends beyond the roofing and has tronco-pyramidic planters
in the inverted pyramidic modules adjacent to the edges. Around the roofing layer
is an upper lateral enclosure consisting of pieces of drilled triangular sheet metal
positioned between the bars of the latticework at an angle of 45° to the exterior,
coinciding with the interior plane of the latticework of the roof.
[0026] The outside walls of the construction as well as the interior partitions consist
of solid panels and window frames attached by nuts and bolts to the vertical columns.
The panels can be made of sheet steel with a frame and a filler of rigid polyurethane.
[0027] Finally, the dropped ceiling consists of panels of insulating material held in place
by suspended intermediate frames and the exterior walls by means of an outer frame
attached to said exterior walls. The space between the dropped ceiling and the roof
serves as a ventilation space.
[0028] The construction subject of the invention also makes it possible to erect buildings
of at least two stories using components that are virtually the same for all floors,
so that the construction of buildings of two or more stories does not require an increase
in the number of different parts or components used in the construction. Similarly,
the simplicity of assembly and disassembly is preserved, comparable in the case of
two or more floors to that of single-story buildings.
[0029] In constructions of two stories the vertical columns of the construction are divided
into two identical segments, an upper and lower, both segments having at their lower
end a means of support of adjustable height and at their upper end a base plate which
is designed, in the case of the lower segment of the columns, to hold the means of
support of the upper segment, while in the upper segment said plate is designed to
hold the means of support of the roof.
[0030] In other words, the lower segments of the columns rest on the plates of the foundation,
while the upper segments rest on the heads of the lower segments, so that the structure
of the upper story is supported on the columns of the structure of the lower story.
[0031] According to another feature of the invention, the roof of the building and the floor
of the second and subsequent stories include identical three-dimensional structures
consisting of bars, which structures are attached, by means of connections in the
same position as the columns, to the means of support of the roof and the upper segment
of the columns.
[0032] Similarly, the floor of the first and second stories is of identical construction,
consisting of a framework comprised of frames upon which the floor plates rest and
are arranged, said frames consisting of peripheral sections and intermediate connections.
[0033] On the columns adjacent to the outer walls, at least, each of the segments of said
columns consists of three vertical tubular sections coinciding with other such connections
of the structure of the first floor. These sections are connected to one another in
each segment by means of a triangular latticework consisting of intermediate diagonal
bars, which bars are attached at their ends to the vertical sections. In the upper
segment of said columns, the section closest to the wall is axially shifted upward
with respect to the other two sections, by a distance equal to the height of the three-dimensional
structure of the roof. In the lower segment of said columns, the two sections furthest
from the wall are shorter than the third section, by a length equal to the height
of the three-dimensional structure of the floor of the second story.
[0034] The intermediate connections of the frames which are part of the framework of the
floor of the second story coincide with the upper connections of the three-dimensional
structure supporting said framework, being connected with said connections through
the means of support of the upper segments of the columns in the connections where
there is coincidence with said columns, while in connections where no such coincidence
exists, they are connected by additional means of support, of adjustable height.
[0035] In the two three-dimensional structures, that of the roof and that of the floor of
the second story, the upper and lower connections without columns consist of a vertical
bolt, which connects and attaches the ends of the bars joined by said connections.
Attached to the bolts of the upper connections of the roof structure are sections
or beams for the support of roofing panels, and to the bolts of the lower connections
of both the roof structure and the floor of the second story are attached sections
from which are suspended dropped ceiling panels. Affixed to the bolts of the upper
connections of the structure of the floor of the second story are upper nuts, upon
which the intermediate connections of the frames of the floor will rest.
[0036] With regard to the exterior walls, according to the invention, the various possible
types of panels are joined by using a smaller number of sections which, by means of
either mutual or direct connection with the adjacent edges of the panel, permit their
attachment, with a clearly discernible separation between consecutive panels. Around
the roof of the building is a gutter adjacent to the lower surface of the roofing
panels and which is supported by clamps attached to the upper end of the threaded
rods comprising the elements of support of the roof structure on the columns adjacent
to the outer walls.
[0037] All of the above characteristics as well as others pertaining to the invention and
listed in the claims, will be explained in greater detail with the aid of the attached
drawings, which illustrate a construction, given by way of non-limitative example
and executed in accordance with the characteristics of the invention.
[0039] Figure 1 is a perspective view of a prefabricated modular construction, built in
accordance with the invention.
[0040] Figure 2 is a schematic cross section of the construction of Figure 1, along the
line II-II.
[0041] Figure 3 is a horizontal projection of the foundation of the construction.
[0042] Figure 4 is a front elevation of one of the parts comprising the frame of the foundation.
[0043] Figure 5 is a large-scale representation of detail A of Figure 2.
[0044] Figure 6 is a view similar to Figure 5, including an lengthening device.
[0045] Figure 7 is a view similar to Figure 5 showing an intermediate support on one of
the crossbeams of the foundation.
[0046] Figure 8 is a front elevation of one of the plates of the outer frame of the foundation
upon which one of the vertical columns rests.
[0047] Figure 9 is a large-scale representation of the overhang of the open latticework
of the roof, including the roofing panel.
[0048] Figure 10 is a large-scale representation of detail B of Figure 9.
[0049] Figure 11 is a horizontal projection of a preferred embodiment of the foundation.
[0050] Figure 12 is a partial perspective of the outer frame with the bearing plates in
place.
[0051] Figure 13 is a partial perspective of the frames upon which the floor plates are
placed.
[0052] Figure 14 is a large-scale cross section along line XIV-XIV of Figure 11.
[0053] Figure 15 is a perspective view of the connection shown in the cross section of Figure
14.
[0054] Figure 16 is a large-scale cross section along line XVI-XVI of Figure 11.
[0055] Figure 17 is a perspective view of the connection shown in Figure 16.
[0056] Figure 18 is an interior perspective view of a two-story construction built in accordance
with this invention.
[0057] Figure 19 is a partial side elevation of the structure of the construction of Figure
18.
[0058] Figure 20 is a partial horizontal projection of the foundation of the construction
of Figure 19.
[0059] Figure 21 shows the beginning of the columns adjacent to the outside walls, with
a cross section of the floor plates.
[0060] Figure 22 is a view similar to Figure 21 with a cross section of one of the columns.
[0061] Figure 23 is a large-scale representation of detail A of Figure 19.
[0062] Figure 24 is a large-scale representation of detail B of Figure 19.
[0063] Figure 25 is a large-scale representation of detail C of Figure 19.
[0064] Figure 26 shows the corner where the structure and the roof meet.
[0065] Figure 27 is a large-scale detail of the corner of the structure shown in Figure
26.
[0066] Figure 28 is a cross section of a detail of the point where the exterior panels meet
and are connected.
[0067] Figure 29 is a view similar to Figure 28, showing the connection between an exterior
panel and a window panel.
[0068] Figure 30 is a view similar to Figures 28 and 29 showing the connection between two
window panels.
[0069] The construction of the invention permits the building of structures or dwellings
of one or two stories, of any outline or floor plan. Figure 1 is a perspective view
of a prefabricated modular construction with a rectangular floor plan, built in accordance
with the invention.
[0070] As more clearly illustrated in Figure 2, the construction includes an above-ground
foundation, generally indicated by the number 1, a floor indicated by the number 2,
a series of vertical columns 3, a roof generally indicated by the number 4, outer
walls 5 and a dropped ceiling 6.
[0071] The above-ground foundation, as shown in Figure 3, consists of an outer frame 7 and
a series of crossbeams 8 level with the frame 7. The frame determines the shape of
the building. The columns 3 and the floor 2 rest on this foundation.
[0072] The foundation described above is built in such a way that it can be placed on existing
slabs and can accomodate slight gradients.
[0073] The outer frame consists of metal parts 9 having a right angle cross section, which
are fastened to one another. The crossbeams 8 are metal inverted T-beams.
[0074] The configuration and construction of the metal parts of the outer frame are shown
in Figures 4 and 5. On the concave side of said parts 9, which have a right angle
cross section, are transverse reinforcing partitions 10, two of which are located
at the ends of part 9. In forming the frame 9, the end partitions 10 of consecutive
parts are placed against one another and traversed by anchor bolts. The vertical member
or wall 11 of the parts 9 are provided, on the concave side, with heads 12 which have
a vertical drilled hole. This vertical member or wall 11 also has vertical slots 12.
[0075] As shown in Figures 5 and 6, the floor consists of floor plates, square or rectangular
in shape, each of which consists of an upper hardwood layer, indicated by the number
14, a fretted or grooved bottom steel plate, indicated by the number 15, and a filler
of rigid polyurethane.
[0076] The plates so formed are surrounded by a metal section 16 which is Z-shaped along
certain edges, while along other edges it is C-shaped, as shown in Figure 7, which
also shows a cross-section of the crossbeams 8, in the form of an inverted T, the
vertical central member having vertical slots and heads 12 like those described with
regard to Figure 4 for the parts comprising the frame.
[0077] As shown in Figure 5, the central member of the frame of the floor plates is attached
to the vertical member or wall 11 of the metal parts of the outer frame by means of
bolts 17. At the same time, the upper member of the Z-section rests on vertical threaded
rods 18, attached to the heads 12 of the parts 9 of the outer frame. Due to the length
of the vertical slots 12 of the parts 9 of the outer frame and the possibility of
adjusting the height of the threaded rods 18, the sections 16 of the floor plates
can be perfectly supported on the foundation, thus accommodating even slight gradients.
The floor plates are supported on the crossbeams 8 in the same way, as shown in Figure
7. If there are gradients exceeding the adjusting capacity of the slots 12 of the
parts 9 of the foundation and the crossbeams 8, lengtheners 19 can be used, as shown
in Figure 6, as well as longer rods 18. In addition, the method of assembly shown
in Figure 6 is the same as that represented in Figure 5 and uses the same reference
numbers.
[0078] The rods 18 preferably have a head at the upper end to support the section 16 and
are turned into the drilled hole of the heads 12.
[0079] Figure 17 shows how the floor plates are placed side by side by means of Z- and C-sections
16.
[0080] With the arrangement of the foundation shown in Figure 3, the floor plates can be
rectangular in shape, one of these plates being represented by a broken line, which
is indicated by the number 19, this plate resting, by means of the section 16 thereof,
on the outer frame 9 and one of the crossbeams 8.
[0081] The support of the vertical columns 3 in the above-ground foundation is explained
by referring to Figures 2, 3 and 8.
[0082] As shown in Figure 3, the outer frame 7 provides, in certain parts 9, a base for
the vertical columns 3. This base, as can be better observed in Figure 8, consists
of a plate 20 located on the horizontal member or wall of the parts 9, coinciding
with an opening in the vertical member or wall 11. The columns 3 consist of tubular
sections which have at their lower end a coaxial leveling bolt 21, the bottom of which
ends in a spherical cap-shaped head that rests on an identically-shaped depression
22 provided in the upper surface of the plate 20.
[0083] As Figure 3 illustrates, the plates 20 that support the vertical columns 3 are located
at the corners of the frame, at the points of contact between the sides of the frame
and the crossbeams 8, and in the center of the shorter sides of the frame. In any
case, the position of the plates 20 will be determined by the position of the vertical
columns.
[0084] Located near the lower end of the vertical columns 3, as shown in Figure 8, are braces
23 which support the floor plates, to which they are attached by bolts. In addition,
as shown in Figures 9 and 10, the vertical columns are attached at their upper end
to a peripheral header beam 24, for example in the shape of an inverted C, which encloses
the upper end of said columns. The rigidity of the system is assured by the use of
diagonal struts.
[0085] The roof 4, as shown in Figures 2, 9 and 10, consists of an open latticework of pyramidic
modules of typical configuration, formed by bars as having a circular cross section,
the ends of which are attached in connections 26 by means of a vertical bolt. For
this purpose, the end sections of the bars are flattened and provided with holes.
This open latticework is mounted atop the vertical columns, for which purpose, as
shown in Figure 10, each of the columns 3 has at its upper end a threaded axial rod
27, to which is attached the end of the bars 25 joined by the connections of the framework
of the roof located on said columns. Figure 10 shows how the flat end of the various
bars joined by the connection are overlapped and traversed by the vertical bolt, in
this case the threaded rod 27 attached to the upper end of the vertical columns 3.
[0086] Atop the open latticework described above is the layer of roofing panels 28 (Figures
1 and 9), which can consist of a sheet filled with thermal insulation, rigid polyurethane
for example. The roof includes a peripheral gutter 29 for the collection of water,
which empties into drainpipes 30. Lapilli-type volcanic gravel can be spread over
the surface of the roofing layer 28.
[0087] As shown in Figures 1 and 9, the open latticework can extend beyond the roofing and
the outer walls of the building, overhanging the latter and containing, in inverted
pyramidic modules near the outside edge, inverted tronco-pyramidic planters 31, the
bottom of which contains a drainage aperture emptying into a gutter 32, which is connected
to the drainpipe 30.
[0088] The sheet comprising the roofing layer 28 is attached to the vertical bolts of the
upper connections 26 by means of auxiliary frames 33. Around the roofing layer 28
is an upper lateral enclosure 34 consisting of pieces of drilled triangular sheet
metal which are placed between the bars of the open framework at an angle of 45° with
regard to the exterior, passing between the roofing layer and the side wall of the
building, as will be explained below.
[0089] The side wall, as shown in Figure 2, as well as the interior partitions of the building,
consist of panels 35 and window frames 36, both of which are rectangular and preferably
of uniform size, and which are attached by means of nuts and bolts to the vertical
columns.
[0090] The panels and frames are positioned vertically in the same plane, each resting on
the vertical edges of the one below. The bottom panel or frame, as shown in Figures
5 and 6, rests on the projecting member of the Z-sections 16 of the floor plates.
On the free horizontal edge of the panel or window frame in the top position is a
bent sheet metal C-section frame 49 (Figures 9 and 10) with the concave side facing
inward. The upper member of this section, as the drawings show, is level with the
outer surface of the header section 24.
[0091] Traversing all the panels in the same vertical column are vertical rods 50, Figure
10, the ends of which are threaded and pass through the lower member of the Z-sections
16, Figure 5, upon which they rest, and the lower member of the upper C-sections,
Figure 10, and are held in place by lock nuts.
[0092] As Figure 5 also illustrates, between the side wall and the floor plates is an angular
baseboard 51.
[0093] As shown in Figure 2, suspended from the open latticework are frames 53, for example
of bent sheet metal, which hold the panels 54 of the dropped ceiling.
[0094] Figure 10 shows that the interior surface of the side wall has an upper frame 55,
similar to the baseboard 51, upon which the panels 54 of the dropped ceiling rest.
[0095] As shown in Figure 9, the bottom of the plates 34 enclosing the sides of the open
latticework come into contact with the frame 49 at the upper end of the side wall.
[0096] The construction can be assembled in the following manner: assembly of the open latticework
with all of its components and the raising thereof to the desired height, where it
is attached to and held in place by temporary supports; placement of the foundation
plates, supports and headers, as well as the diagonal struts; lowering of the open
latticework to its final position and removal of the temporary supports; placement
and attachment of the roofing sheets; placement and attachment of the floor plates
and exterior panels and window frames; dropped ceilings, inner partitions, windows,
interior finishing; fixtures, landscaping, etc.
[0097] The foundation shown in Figures 11, 12, and 13 consists of a series of independent
bearing plates, indicated by the numbers 56, 57, and 58, an outer frame indicated
by the number 59, and a grid of upper frames 60 into which the floor plates 61 are
fitted.
[0098] The bearing plates are positioned to coincide with the vertices of a grid. The peripheral
bearing plates, indicated by the numbers 57 and 58, are located on the outer frame,
while the intermediate plates are indicated by the number 56.
[0099] The outer frame 59 has a grooved C-cross section and is formed, by means of consecutive
interconnected segments, by sections into one of which the bearing plates 57 fits.
Along two opposite edges of these plates are walls 62, which, like the walls of the
outer frame 59, have holes 63 that can be aligned and through which anchor bolts can
be passed. In this way, the bearing plates 57 also serve as connectors between the
consecutive segments forming the outer frame 59. The plates 58 that do not come into
contact with the joints of the segments of the frame 59 do not have to have the walls
62.
[0100] The intermediate bearing plates 56 can consist of a double plate, the uppermost of
which, indicated by the number 64, is smaller and has a depression 65 in the center,
more or less hemispherical in shape, as will be seen below.
[0101] The frames 60 consist of sections 66 more or less equal in length to the side of
the grid, and of intermediate connections 67 located at the vertices of the grid,
so that each connection is located on a bearing plate. On the underside of these connections
67, as will be explained below, is a leveling element which rests on the depression
65 of the bearing plate immediately beneath it.
[0102] As shown in Figures 15 and 17, each of the sections 66 of the frames 60 consists
of identical longitudinal C-sections 68 which are externally contiguous and the central
members 69 of which are joined. The end members 70 and 71 are of different lengths,
the upper member 70 being shorter. At the ends of the sections 66, the central member
69 of the two sections 68 are slightly separated, creating an open space 72.
[0103] The intermediate connections 67, as shown in Figures 15 and 17, consist of a cylindrical
sleeve divided axially into four identical parts 73, each of which extends from its
upright edges into perpendicular plates 74 of identical dimensions, which fit together
consecutively to form the sleeve, as illustrated in the drawings, said plates being
provided with holes for the passage of anchor bolts, every two contiguous plates forming
an axial radial wing 75, which is inserted into the opening 72 at the end of the sections
66 of the frames joined by the connection. The hole in the center of the plates 74
is aligned with a hole in the central member 69 of the C-sections 68, for the passage
of an anchor bolt.
[0104] When a column 76 is positioned atop the sleeve 67, the bottom of said sleeve rests
on a nut 77 into which is turned a threaded rod 78, the bottom end 79 of which is
hemispherically shaped so that it will rest on the depression 65 in the plate immediately
beneath it, whereas the top end is a polygonal head 80. The rod 78 passes axially
through the interior of the sleeve 67 and enters the vertical column 26, the bottom
of which ends in a base plate 81 which rests on the sleeve 67 and sections 66 and
has a threaded central opening 82 through which the rod 78 is turned.
[0105] In Figures 14 and 15 the column 76 is positioned on one of the bearing plates 58
inside the outer frame 59.
[0106] Figure 14 shows how the floor plates 61 end in a peripheral right-angle Z-section
83. The upper end wing of this section rests on the upper wing 70 or the sections
68 of the peripheral frames, while the lower end wing of the Z-section 83 rests on
the longer lower wing 71 of the sections 68. In this way, the sections bordering the
panels 61, all of which are Z-sections, rest on the upper and lower end wings of the
C-sections comprising the sides of the frames.
[0107] As shown in Figures 13 and 14, the outer sides of the peripheral frames include a
section 84, attachable to the outer section 68 of the frames, which serves as a support
for the panels 85 that form the exterior wall of the building.
[0108] To the connections without a column 76, as is the case in Figures 6 and 7, under
the sleeve that forms said connection, is attached a second coaxial sleeve 86, the
bottom of which flares out into a segment with a larger diameter, in which a nut 87
is seated. Into this nut is turned a threaded rod 88, the lower end 89 of which is
rounded so that it will rest in the depression 65 of the plate immediately beneath
it. The top of the rod 88 can end in a polygonal head 90, or with a diametrical slot,
accessible through the sleeve 67.
[0109] With the configuration described above, the first step in assembling the foundation
is the outer frame 59, which defines the outline of the building. Next are the bearing
plates 56, 57, and 58, arranged to coincide with the vertices of a grid with the same
dimensions as the floor plates 61. Next comes assembly of the frame 60, sliding the
sections 66 of the frames into the connections 67, fastening being achieved by bolts
passed through the holes in the radial wings 75 of the connections and the central
members of the C-sections 68. The connections into which the columns 76 are fitted
rest on the nuts 77, while the connections without columns have internal coaxial sleeves
86, Figures 16 and 17. Next, the frame 60 is leveled by means of the threaded rods
78 and 88, and then the floor plates 61, the columns 76, and the other components
of the construction are put into place.
[0110] The construction shown in Figure 18 is a two-story structure with an above-ground
foundation (not shown), upon which is assembled a framework <
such as that described with regard
to Figures 11-17>, as well as a series of intermediate columns, indicated by the number 91, and columns
adjacent to the walls, generally indicated by the number 92. These columns support
the roof 4, and an intermediate framework, indicated by the number 93, which serves
as the floor of the second story.
[0111] Figure 20 is a partial horizontal projection of the above-ground foundation, which,
<
as in the case of Figure 12>, consists of a series of plates 56 and 58, arranged in rows and columns. The plates
56 and 58 have additional pieces 64 (Figures 22 and 23) provided on the upper side
with a central depression 65, more or less hemispherical in shape, upon which the
support of the columns 91 and 92 rests, as will be explained below. The plates 58
are much larger than the plates 56 and are designed to hold the support of the composite
columns. Between the plates 58 adjacent to the outer walls may be placed intermediate
strips or angle bars 94, which may also have additional pieces 64 to support the intermediate
columns.
[0112] As shown in Figure 13, the framework consists of a grid formed of peripheral sections
66 and intermediate connections 67, which connections are located on foundation plates
56 or 58 and are fitted with leveling devices. Placed within the frames formed by
the grid are floor panels 61.
[0113] Some of the plates 61 of the foundation and certain additional pieces 64 of the plates
58 support the intermediate connections 67 of the framework, as will be explained
below.
[0114] Figure 19 is a partial elevation of the structure of the building in Figure 18. Figure
19 shows how the intermediate columns 91 are divided into equal segments, an upper
one, which is indicated by the number 91a, and a lower one, which is indicated by
the number 91b. Similarly, the peripheral front columns 92 are divided into two segments,
an upper one, indicated by the number 92a, and a lower one, indicated by the number
92b.
[0115] Each of the segments 92a and 92b of the front columns consists of three vertical
tubular sections indicated by the number 95, which are connected to one another by
means of an intermediate latticework of diagonal bars 96. The three sections 95 of
each column 92 rest on the plates 58 of the foundation, thus determining the outline
represented on said plates by dotted lines (Figure 20).
[0116] Both the segments 91a and 91b of the intermediate columns 91, and the sections 95
comprising the segments 92a and 92b of the columns 92, have at their lower end a means
of support on the foundation plates, the height of which is adjustable and which is
generally referred to by the number 97 in Figure 19. These means of support, as shown
in Figure, 21, 22, 23, and 24, consist, in the same manner as that shown in Figures
14-17, of a threaded rod 78, which turns axially on the plate 81 at the bottom end
of the section of the segment of the column. The bottom end of this rod is a head
97 with a curved convex surface in the form of a spherical cap, which rests on the
corresponding depression 65 of the additional piece 64 of the foundation plates. The
threaded rod 78 can be held in place by means of a nut 81, Figures 22 and 24, equipped
with radial arms 98 making it easier to use.
[0117] The tubular sections comprising the segments 91a and 91b of the intermediate columns
91 and the segments 92a and 92b of the columns 92, are provided at their upper end,
as shown in Figures 23, 24, 25, and 26, with a cover plate 99 which also has on its
upper surface a depression 65 in the form of a spherical cap which is designed, in
the lower segment of the columns, to receive the threaded rod 78 which provides the
means of support of the upper segment, while in said upper segment the depression
65 is designed to receive the means of support 100 of the roof 4, Figure 27.
[0118] This roof 4 consists of an open latticework of pyramidic modules of typical configuration,
formed by bars 25, preferably tubular sections, which end in plates 101 with a hole
in the center, as shown, for example, in Figures 26 and 27. The plates 101 of the
bars coming together in the connection are made to overlap and are attached by a vertical
anchor bolt, which, in the connections into which columns are fitted, serves as the
means 100 of supporting the roof. In this case, the bottom of the bolt 100 ends in
a spherical head 107 which rests on the depression 65 of the plate 99 and is held
in place by means of a cap-shaped upper plate 103, with an opening for the passage
of the threaded rod 100. Also attached to these threaded rods 100 are pieces 104 that
hold the pieces 105 which comprise the gutter. In the connections without columns,
the anchor bolts of the bars 25, indicated by the number 106, also provide for the
attachment of the sections 107 in the upper connections and the sections 108 in the
lower connections. The sections 107, together with the pieces 104, support the roof
panels 109. From the lower sections 108 can be suspended a dropped ceiling 110.
[0119] As shown in Figure 27, the threaded rod 100 also serves to attach an upper front
panel 110, which can be drilled, and which includes a lower longitudinal protrusion
111, a dovetail for example, which fits into the intermediate sections 112 used to
connect the other front panels 85, as will be explained in greater detail by making
reference to Figures 19 and 20.
[0120] The floor of the second story 93 has the same structure as the roof 4, except for
the fact that the connections beneath the columns 91 and 92 are traversed by threaded
rods 78 which constitute the means of support of each upper segment of the columns
on the lower segments thereof, as shown in Figures 23 and 24, while the upper connections
of the structure without columns are traversed by bolts 113, as shown in Figures 23
and 24.
[0121] Figure 13 is a perspective view of the structure of the framework 1 which rests on
the above-ground foundation. The intermediate connections 12 which comprise the frame
of this framework rest, as seen in Figure 22, on the nuts 81 which are turned onto
the rods 78 comprising the supporting elements of the columns on the above-ground
foundation.
[0122] On the above-cited frame of the floor of the second story, which is the same as the
roof, is a framework of identical construction to that of the lower floor, including
an identical frame 60 consisting of sections 60 and intermediate connections 67, as
indicated in Figures 23, 24, and 25, said intermediate connections 67 resting on nuts
81, as in the lower framework, turned onto the rods 78 and the bolts 113. On the frame
formed by the sections 66 and connections 67, as in the case of the lower floor, are
the floor panels 61.
[0123] In this way, the floor of the second story has a structure identical to that of the
roof and a framework identical to that of the lower story, it being unnecessary to
use parts or components for the upper story different from those used on the lower
story, which is a tremendous advantage in terms of the development, manufacture and
storage of the components.
[0124] The structure comprising the upper story rests on the lower segments of the columns.
[0125] As Figure 19 illustrates, on the upper segment 92a of the front columns, the internal
and external tubular sections 95 are axially displaced by a distance equal to the
height of the frames of the roof and the second story. Similarly, the external and
internal sections of the lower segment 92b are of different heights, by a distance
equal to the height of the structure of the floor of the second story, the upper ends
of the sections 95 thus coinciding with the upper and lower connections of the frames.
[0126] The ends of the diagonal bars 96 of the latticework of the columns 92 are attached
to cover plates 114, as may be more clearly seen for example in Figure 27, which cover
plates are attached by bolts 115 to the corresponding section 95.
[0127] As shown in Figures 18 and 19, in the case where the structure and framework comprising
the floor of the second story does not extend to certain front columns, as is the
case with the columns indicated by the number 116, said columns would not be divided
into two segments; instead, the sections 95 would be continuous and only one piece
from top to bottom.
[0128] Finally, Figures 28-30 show a possible method of joining the covering elements of
the outer walls, which can consist of an upper panel of sheet metal 110, Figure 27,
intermediate insulating panels 25, and window panels 117, for example. The various
panels can be joined along their horizontal edges by means of a connecting section
118, designed to fit partially into longitudinal grooves in the adjacent edges of
the panels 85, or by means of additional sections 119 designed to hold, on one side,
the window panels 117, while the other side is attached to the intermediate section
118.
[0129] Level with the floor of the second story a cover panel 119 of smaller thickness can
be installed, as shown in Figure 24, to conceal the projecting parts of the intermediate
connection 67 of the framework.
1. Prefabricated modular construction intended for the construction of buildings of one
or two storeys of the type that consists of a foundation, pillars, an upper structure
on which is housed the roof and partitioning and carpentry elements, characterized
by the fact that the foundation is a surface foundation (1) comprising a perimetric
frame (57, 58, 59, 94) coinciding with the periphery of the construction, inside which
is fitted a mesh of inner frames (60) composed of a plurality of joined profiles (66)
provided at their connection joints with support means comprising means for levelling
(88) mounted on support plates (56), with a floor plate (61) being mounted above each
said connection joint, said perimetric frame having mounted thereon stayed pillars
(76, 95) supporting a spatial lattice of pyramidal modules formed from bars (25) which
have mounted on their upper part the roof panels (109), while suspended from their
lower part are panels (110) forming a false ceiling, the external and dividing partitions
being formed from sheet and insulating panels (85, 110) and glazed panels (117) which
are secured to the pillars (76, 95) by means of screws.
2. Construction as per claim 1, characterized by the fact that the perimetric frame (7)
consists of consecutive profile sections (59) with a cross-section in the form of
a "C" with the opening pointing upwards and with the external wing larger than the
internal one, joined by means of pieces (57) secured by screws to each pair of consecutive
wings.
3. Construction as per claim 1, characterized by the fact that each inner frame (60)
consists of four profiles (66), each one of which is composed of two C-shaped longitudinal
profiles backing on to each other externally and united by their central arms, their
upper external arms (70) being of shorter length than their lower arms (71), and the
ends of those profiles (66) being adapted for allowing their coupling and securing
to the respective radial spar (75) of the connection joints (67).
4. Construction as per claim 3, characterized by the fact that the intermediate connection
joints (67) consist of a cylindrical collar from which project externally four radial
axial spars in a cross (75).
5. Construction as per claim 4, characterized by the fact that the cylindrical collar
(86) consists of four equal pieces (18), each one of which is extended, starting from
its edges, in separate equal plates (19) perpendicular to each other.
6. Construction as per claim 4 or 5, characterized by the fact that in the connection
joints (67) on which a vertical pillar (76) is present, the base of the collar rests
on a coaxial nut (77) in which is screwed a threaded rod (78) which crosses the collar
and whose upper end consists of a polygonal head (80) while the lower end is hemispherical
(79) and rests in the tread (65) of the support plate (56) facing the foundation.
7. Construction as per claim 4 or 5, characterized by the fact that in the connection
joints (56) on which there is no vertical pillar (76) present, the lower part of the
collar houses a second internal collar from the bottom of which projects a length
with greater cross-section, in which is inserted a coaxial nut in which is screwed
a threaded rod (88) whose lower end is approximately hemispherical in order to rest
in the recess (65) of the facing support plate (56), while the upper part ends in
a polygonal head (90) located slightly below the upper edge of the external collar.
8. Construction as per claim 1, characterized by the fact that the floor plates (61)
are finished along all their edges by profiles (83) with cross-section shaped as a
2 with right-angles, whose upper and lower end wings respectively rest on the upper
(70) and lower (71) end arms of the C-shaped profiles (66) which form the sides of
the frames (60).
9. Construction as per claim 1, characterized by the fact that the bars (25) constituting
the spatial lattice are linked in upper and lower connection joints by means of screws
(106) which cross their flattened ends and the respective nuts, which also secure
the profiles (107) securing the roof in the upper connection joints, and the profiles
(108) for securing the false roof in the lower connection joints.
10. Construction as per claim 1, characterized by the fact that the spatial lattice formed
by bars (25) rests on the pillars (76) by means of the actual screw (100) that links
the bars (25) and which, for this purpose, has its lower end in the shape of a spherical
head (102) resting in the tread (65) of the plate (99) crowing the top of each pillar
(76), this spherical head (102) being retained by means of an upper plate (103) in
the form of a cap and provided with an opening in order to allow the passage of the
threaded rod (100).
11. Construction as per claim 1, characterized by the fact that the union between the
different facade walls (85, 117) is carried out by means of a profile (118) partially
embedded in longitudinal channels of the adjacent sides of the panels and secured
by means of screws or pillars.
12. Construction as per claim 1, characterized by the fact that, when the enclosure has
two storeys, the vertical pillars (91, 92) are divided into two equal sections, an
upper one (91a, 92a) and a lower one (91b, 92b), the lower ends of which are provided
with support means (97) of adjustable height, while their upper ends are provided
with a seating (99, 65) which, in the lower section of the pillars, is intended to
receive the means of support of the upper section and, in the upper section of those
pillars, to receive the means of support of the roof; and by the fact that the roof
(4) and the floor of the second storey (93) includes separate and equal three-dimensional
structures based on bars (25), whose structures are fastened via the connection joints
coinciding with the pillars to the means of support of the roof and upper section
of the pillars, with a concrete slab being provided on the structure of the floor
of this second storey equal to that which rests on the surface foundation.
13. Construction as per claim 12, characterized by the fact that each one of the pillar
sections (92a, 92b) adjacent to the facade walls is composed of one facade profile
(95) and two interior profiles (95) joined together by three triangular lattices formed
from oblique bars (96), the upper section of the profile (95) closest to the wall
being axially displaced upwards with respect to the other two profiles (95) by an
amount equal to the height of the three-dimensional structures of the roof (4), and
in the lower section the two profiles (95) distant from the wall have a lower height
than the third profile (95) by an amount equal to the height of the three-dimensional
structure of the floor of the second storey (93).
14. Construction as per claim 13, characterized by the fact that the oblique bars (96)
of the lattices of the sections of the pillars adjacent to the walls (92a, 92b) are
fastened by their ends to sheet-metal straps (114) that back onto and are fastened
to the tubular profiles (95) of those sections by means of screws (115).
15. Construction as per claim 13, characterized by the fact that the floor of the second
storey (93) is composed of a concrete slab which, like that of the first storey, is
made up of upper frames on the basis of peripheral profiles (66) and intermediate
connection joints (67) and panels (14) that are mounted on those frames; the intermediate
connection joints (67) coinciding with the supper joints of the three-dimensional
structure of that storey (93) with which it is linked via the means of support of
the upper sections of the pillars (91b) in the coinciding connection joints with those
pillars, and via auxiliary support means for height.
16. Construction as per claim 13 or 15, characterized by the fact that the upper and lower
connection joints of the three-dimensional structures not coinciding with pillars
(91a, 91b) consist of a vertical screw (113) that links and fastens the ends of the
bars (25) meeting at those joints; fastened in the screws (106) of the supper joints
of the roof structure (4) being profiles (107) for supporting roof panels (109) and
in the screws (106) of the lower connection joints of the roof structure and of the
floor of the second storey being profiles (108) from which are suspended false ceiling
panels (110); while threaded in the screws of the upper joints (113) of the structure
of the floor of the second storey (93) are upper nuts (81) on which rest the intermediate
connection joints (67) of the frames of the concrete slab.
17. Construction as per claim 13, characterized by the fact that fitted around the roof
(4) is a gutter that closes against the lower surface of the roof panels (109) and
is supported by securing pieces (104) that are fastened at the upper end of threaded
rods (100), which constitute the support elements of the roof structure on the pillars
adjacent to the facade (92a).
18. Construction as per claim 13, characterized by the fact that the top of the facade
or side enclosure ends in a perforated sheet panel (110), the upper and lower sides
of which have internal wings, the upper one being fastened to the threaded rods (100)
constituting the support elements for the roof structure on the pillars adjacent to
the facade (92a) below the securing pieces for the gutter, while the lower one shapes
a central longitudinal projection (111) for securing to the adjacent profile of the
facade.
1. Vorgefertigter modulierter Bau für den Bau von ein oder zwei Stockwerkgebäude, von
der Art welche aus Grundierung, Pfeiler, und oberer Struktur bestehen, auf welcher
das Dach und die Abdeckung liegt, und Zimmerhandwerkelemente, charakterisiert dadurch
dass das Fundament eine Oberflächengundierung (1) ist bestehend aus einem perimetralen
Rahmen (57,58,59,94), übereinstimmend mit dem Perimeter des Gebäudes, in dessen Inneren
eine Rasterstruktur von inneren Rahmen (60) versehen ist, bestehend aus mehrzahlig
zusammengeschraubten Profielen (66) versehen an deren Verbindungsenden mit nivelierbaren
Stützelementen (88) die sich auf Verteilerplatten (56) stützen, mit einer Bodenplatte
(61) über jedem Verbindungsknoten; auf die im Perimeter senkrechte Pfeiler (76,95)
versehen werden die die pyramidförmige Modulgitterdachstrucktur bestehend aus Stangen
(25) tragen, auf der die Bachpanelierung (109) ruht, und von der die Deche (110) des
Gebäudes hängt; die Aussen- un Innenwände bestehend aus Blechpaneelen mit Isulierung
(85,110) als auch die Fensterpaneele (117) werden an die Pfeiler (76,95) mit verschiedenen
Schraubenfamilien befestigt.
2. Bau der duch Anspruch 1 sich dadurch charakterisiert dass der perimetrale Grundierungsrahmen
(7) aus nacheinanderfolgenden Profilen (59) besteht, im Schnitt C-förmig, mit der
Öffnung nach oben ausgerichtet wobei der äussere Flügel länger ist als die innere,
verschraubt mit Elementen (57), abgesichert mit Schrauben an jedem Par von nachfolgenden
Profilflügel.
3. Bau der duch Anspruch 1 sich dadurch charakterisiert dass jeder innere Rahmen (60)
aus vier Profielen (66) besteht, jedes bestehend aus zwei C-förmigen Längsprofielen
aussenseits verbunden an deren Mittenarmen, mit kürzerem oberem Aussenarm (70) als
äusserem Unterarm (71), mit Anpassungen an den Enden der Profilen (66) um Zusammenfügung
und Verschraubung mit jedem respektivem radialem Flügel (75) und deren Verbindugen
(67) zu ermöglichen.
4. Bau der duch Anspruch 3 sich dadurch charakterisiert dass der innere Verbindungsknoten
(67) aus einem zylinderförmigen Element besteht, von dem vier Flügel radial kreutzartig
herrausragen (75).
5. Bau der duch Anspruch 4 sich dadurch charakterisiert dass das zylinderförmige Hülse
(86) aus vier gleichen Elementen besteht (18), jedes ausgetreckt von deren Enden ausgehend,
aus unabhängigen gleichen Platten (19) senkrecht aufeinanderstehend.
6. Bau der duch Anspruch 4 oder 5 sich dadurch charakterisiert dass die Hülse des Verbindungsknotens
(67), auf denen ein senkrechter Pfeiler (76) sich befindet, auf einer coaxialen Mutter
(77) ruht in der eine Gewindestange (78) versehen wird, die die Hülse durchkreutzt
und deren oberes Ende ein poligonaler Kopf (80) ist während das untere Ende sfärisch
(79) ist, ruhend in der geeigneten Aussparung (65) einer Bodenplatte (56).
7. Bau der duch Anspruch 4 oder 5 sich dadurch charakterisiert dass die Hülse des Verbindungsknoten
(56) auf dem sich nicht ein Pfeiler (76) befindet auf einer zweiten Inneren Hülse
ruht welche unten mit grösserem Querschnitt herausragt in der eine koaxiale Mutter
eingefasst wird, in die eine Gewindestange (88) verschraubt wird, deren unteres Ende
sfärisch ist um in der Vertiefung (65) der Bodenplatte (56) zu ruhen, während das
obere Ende in einem poligonalem Kopf (90) abschliesst welcher leicht unterhalb der
äusseren Hülse endet.
8. Bau der duch Anspruch 1 sich dadurch charakterisiert dass die Bodenplatten (61) an
deren Seiten längs mit Profilen (83) in Z-Querschnitt mit rechtwinkligen Winkeln versehen
sind, deren oberen und unteren Aussenseiten respectiv auf den oberen- (70) und unteren-
(71) Seiten der C-Profilen ruht welche die Innerrahmen (60) bilden.
9. Bau der duch Anspruch 1 sich dadurch charakterisiert dass die Stangen (25) die das
räumlich angeordnete Deckengitter bilden an deren oberen und unteren Vewrbindungsknoten
mit einer Anzahl verschiedener Schrauben verbunden werden die die abgeplatteten Stangenenden
durchqueren, verschraubt mit den dazugehörenden Muttern, die ausserdem die Profile
(107) zur Absicherung des Daches an den oberen Knoten, und die Profile (108) zur Absicherung
der Decke an den unteren Knoten befestigen.
10. Bau der duch Anspruch 1 sich dadurch charakterisiert dass die räumliche Gitterdachstrucktur
bestehend aus den Stangen (25) auf den Pfeilern (76) ruht mittels der gleichen Schrauben
(100) die die Stangen (25) verbinden welche für diesen Zweck unterseits mit einem
sfärischem Kopf enden (102) welcher in eine Vertiefung der Kopfplatte (99) jedes Pfeilers
passt, festgehalten mittels einer oberen kappenförmigen Platte (103) mit einer Öffnung
um den Durchgang der Gewindestange (100) zu ermöglichen.
11. Bau der duch Anspruch 1 sich dadurch charakterisiert dass die Verbindung verschiedener
Fassadenwände (85,117) mittels enes Profils (118) geschieht der teilweise in den Längskanälen
der anliegenden Seiten eingefasst wird, welcher mit Schrauben verankert wird.
12. Bau der duch Anspruch 1 sich dadurch charakterisiert dass im Fall eines Zweistockwerkgebäudes
die Pfeiler (91,92) in zwei gleiche Abschnitte zerlegt werden, ein oberer Abschnitt
(91a,92a) und ein unterer Abschnitt (91b,92b) welche an deren unteren Enden mit in
Höhe regulierbaren Stützelementen (97) versehen sind, und an deren oberen Enden mit
Trägerelementen (99,65) welche sich dazu eignen im unterem Abschnitt des Pfeilers
den oberen Abschnitt zu befästigen, und im oberen Abschnitt um die Dachstützelemente
zu befästigen; und weil das Dach (4) und der Boden des zweiten Stockwerkes (93) eine
dreidimensionale Stangenstruktur beinhalten bestehend aus Stangen (25), derer Struktur
an die Pfeiler an den Trägerelementen auf den oberen Pfeilerabschnitten befästigt
werden mittels den mit den Pfeilern ubereinstimmenden Knoten, wobei der Boden mit
den gleichen Elementen des Grundstockwerkes zusammengebaut wird.
13. Bau der duch Anspruch 12 sich dadurch charakterisiert dass jeder an der Fassade anliegender
Fassadenpfeilerabschnitt (92a,92b) aus einem Fassadenprofil (95) besteht, und die
zwei inneren, unter sich mit dreieckförmiger Gestängestruktur verbunden bestehend
aus schrägen Stangen, wobei der obere zur Wand nähere Abschnitt des Profils (95) axial
nach oben bezüglich der anderen zwei Profile (95) verschoben ist in einer Länge gleich
der Höhe der dreidimensionalen Modulgitterdachstrucktur (4), und wobei die unteren
Abschnitte der von der Wand entfernten Profile (95) von kürzerer Länge sind als das
dritte Profil (95) in dem equivalentem Mass gleich der Höhe der dreidimensionalen
Modulgitterbodenstruktur des zweiten Stockwerkes (93).
14. Bau der duch Anspruch 13 sich dadurch charakterisiert dass die schrägen Stangen (96)
der an der Wand näheren Pfeilerabschnittstruktur (92a,92b) die deren Enden an Blechstrelfen
verbunden sind, die mit Hilfe von Schrauben an die Abschnitte der Rohrprofile (95)
gesichert werden.
15. Bau der duch Anspruch 13 sich dadurch charakterisiert dass der Boden des zweiten Stockwerkes
(93) aus einem Fachwerk besteht welches gleich dem ersten Stockwerk aus oberen Rahmen
aus periferischen Profilen (66) und inneren Verbindungsknoten (67) und Bodenpaneelen
(14) welche auf den periferischen Profilen ruhen besteht; wobei die inneren Verbindungsknoten
(67) mit den oberen Knoten der dreidimensionalen Bodenstruktur (93) übereinstimmen,
die sich mit diesen mit Hilfe von Stützelementen der oberen Pfeilerabschnitte (91
b) in den mit den Pfeilern übereinstimmenden Knoten und zusätzlichen Höhenivelierelementen
verbinden.
16. Bau der duch Anspruch 13 oder 15 sich dadurch charakterisiert dass die oberen und
unteren mit den Pfeilern (91a,91b) nicht übereistimmenden Knoten der dreidimensionalen
Struktur aus einer vertikalen Schraube (113) bestehen welche die in diesen Knoten
zusammentreffenden Stangenenden der Stangen (25) absichern, wobei mit den Schrauben
(106) der oberen Knoten der Dachstruktur (4) die Profile (107) verschraubt werden
als Lagerung der Dachpaneele, und wobei mit den Schrauben (106) der unteren Dachstrukturknoten
und der des Bodens des zweiten Stockwerkes die Profile (108) verschraubt werden, von
denen die Deckenpaneele (110) hängen; während die Schrauben der oberen Knoten des
Bodens des zweiten Stockwerkes (93) mit oberen Muttern (81) abgesichert werden auf
denen die inneren Knoten (67) der Fachwerkrahmen ruhen.
17. Bau der duch Anspruch 13 sich dadurch charakterisiert dass rudherum des Daches (4)
eine Dachtraufe angebracht wird welche gegen die Unterseite der Dachpaneele (109)
anliegen und mit Hilfe von Festigungselementen (104) festgehalten wird welche an die
oberen Enden der Gewindestifte (100) welche zugleich die Stützen des Daches auf den
an den Wänden anliegenden Pfeilern (92a) sind.
18. Bau der duch Anspruch 13 sich dadurch charakterisiert dass die Fassade oder Seitenabschluss
oberhalb mit Hilfe von einem gelochtem Blechpaneel (110) abgeschlossen wird, welche
oberseits und unterseits mit inneren Flügeln versehen sind, von denen der Obere an
die Gewindestifte (100) welche die Stützen des Daches auf den an den Wänden anliegenden
Pfeilern (92a) sind unterhalb der Festigungselemente des Dachtraufes befässtigt wird,
während der Untere ein zentralen Verankerungslängsvorsprung (111) an das anliegende
Fassadenprofil gestaltet.
1. Construction modulaire préfabriquée destinée à la construction d'édifices d'un ou
deux étages constitués par une fondation, des pilliers, une structure supérieure sur
laquelle se trouve placé la toiture et des éléments de cloison et de charpenterie,
caractérisés par le fait que la fondation est une fondation superficielle (1) qui
comprend un cadre périmétrique coincidant dans le contour de la construction (57,58,59,94),
étant monté à l'intérieur une maille de cadres internes (60), constituée par un ensemble
de profils (66) unis, pourvus dans ses noeuds de moyens de support qui comprennent
des moyens de nivellation (88) montés sur des plaques d'appui (56) étant montée une
plaque de plancher par dessus de chaque noeud de connection ayant ce cadre périmétrique,
monté sur lui-même, des pilliers accorés (76,95) qui supportent un treillis spatial
de modulaires piramidales formés par barres (25) qui a monté dans sa partie supérieur
les panneaux de couverture (109) tandis que de sa partie inférieur reste suspendu
des panneaux (110) qui forment un faux-toît étant formé la cloison extérieur et divisoires
par des panneaux de plaques et isolants (85,110) et des panneaux vitrés (117) qui
se fixent à travers des vis aux pilliers (76-95).
2. Construction d'après la revendication 1, caractérisée par le fait que le cadre périmétrique
(7) est constitué par des travées consecutives de profils(59) avec une coupe en forme
de "C" avec l'ouverture dirigée vers le haut et avec l'aile extérieur plus large que
l'intérieur, unis à travers de pièces (57) fixées avec des vices à chaque pair d'ailes
consécutives.
3. Construction d'après la revendication 1, caractérisée par le fait que chaque cadre
interne (60) est constitué par quatre profils (66) chaqun desquels est constitué par
deux profils longitudinaux en "C" adossés extérieurement et unis par ses branches
centrales, étant ses branches extrêmes supérieures (70) de plus petite longueur que
ses branches inférieures (71), étant les extrémités de ces profils (66) adaptés pour
permettre son accouplement et sa fixation à la réspective aile radiale (75) des noeuds
de connection (67).
4. Construction d'après la revendication 3, caractérisée par le fait que les noeuds intermédiaires
de connection (67) son constitués par une frette cylindrique de laquelle dépassent
exterieurement quatre ailes axiales radiales en croix (75).
5. Construction d'après la revendication 4, caractérisée par le fait que la frette cylindrique
(86) est constituée par quatre pièces égales (18), chacune desquelles se prolonge
à partir de ses bords, en chaque plaque égales (19) perpendiculaires entre elles.
6. Construction d'après la revendication 4 ou 5, caractérisée par le fait que dans les
noeuds (67) sur lesquels se rend un pillier vertical (76) la frette s'appuie inférieurement
en un écrou coaxial (77) où se vissent une tige filetée (78) qui traverse la frette
et reste achevé superieurement en une tête poligonnale (80) tandis qu'inférieurement
reste achevé en une extrémité hémisphérique (79) qui s'appuie sur la trace (65) de
la plaque d'appui (56) dressée de la fondation.
7. Construction d'après la revendication 4 ou 5 , caractérisée par le fait que les noeuds
(65) sur lesquels ne se rend pas un pillier vertical (76), la frette loge inférieurement
une deuxième frette interne qui dépasse inférieurement en une travée de plus grande
section, dans laquelle va embouti un écrou coaxial a laquelle s'introduit une tige
filetée (88) dont l'extrémité inférieur est plus ou moins de forme hémisphérique,
pour appuyer sur la trace (65) de la plaque d'appui (56) dréssée, tandis que dans
la partie supérieure tout reste achevé en une tête poligonale (90) qui reste située
légèrement par dessous du bord supérieur de la frette externe.
8. Construction d'après la revendication 1, caractérisée par le fait que les plaques
du plancher (61) sont achevées par tous ses bords par profils (83) de section en Z
d'angle droit, dont les ailes extrêmes supérieures et inférieures s'appuient respectivement
sur les branches extrêmes supérieures (70) et inférieures (71) des profils en C (66)
qui forment les côtés des cadres (60).
9. Construction d'après la revendication 1, caractérisée par le fait que les barres (25)
qui constituent le treillis spatial s'unient en noeuds supérieurs et inférieurs à
travers des vis (106) qui traversent ses extremitées aplanies et les écroux, qui fixent
en plus les profils (107) de la fixation de la toiture dans les noeuds supérieurs
et les profils (108) pour la fixation du faux toit dans les noeuds inférieurs.
10. Construction d'après la revendication1, caractérisée par le fait que le treillis spatial
formé par barres (25) qu'à ce point est achevé inférieurement par une tête sphérique
(102) qui s'appuie sur la trace (65) de la plaque (99) qui achève supérieurement chaque
pillier (76), restant retenue tel tête sphérique (102) à travers d'une plaque supérieur
(103) en forme de frette et dotée d'une ouverture afin de permettre le passage de
la tige fileté (100).
11. Construction d'après la revendication 1, caractérisée par le fait que l'union entre
les differents murs de la façade (85,117) se realise grâce à un profil (118) qui s'incruste
partiellement dans des canaux longitudinaux des tranches adjacentes des panneaux et
se fixe grâce à des vis ou des pilliers.
12. Construction d'après la revendication 1, caractérisée par le fait que quand l'enceinte
présente deux étages, les pilliers verticaux (91,92) sont divisés en deux travées
égales, une supérieure (91a, 92a) et une autre inférieure, (91b,92b) lesquelles sont
dotées dans son extremité inférieure de moyen d'appui (97) d'hauteur controlable,
et dans son extrémité supérieure d'un siège (99,65) qui est destiné, dans la travée
inférieure des pilliers, à recevoir les moyens d'appui de la travée supérieure et
dans la travée supérieure de ces pilliers à recevoir les moyens d'appui de la toiture;
et parceque la toiture (4) et le plancher du deuxième étage (93) comprennent les deux
structures tridimensionelles égales, à base de barres (25), où chaque structure est
fixée,grâce aux noeuds coincidants avec les pilliers, aux moyens d'appui de la toiture
et la travée supérieure des pilliers, en disposant sur la structure du plancher de
ce deuxième étage un forgeage égal à celui qui appui sur la fondation superficielle.
13. Construction d'après la revendication 12, caractérisée par le fait que chaque travée
des pilliers (92a,92b) adjacents aux murs de la façade est constitué par un profil
de façade et deux intérieurs (95) unis entre eux par trois treillis triangulaires
formés par des barres obliques (96), étant la travée supérieure du profil (95) plus
proche au mur déplacé axialement vers le haut, par rapport aux autres deux profils
(95) une magnitude equivalente à l'hauteur des structures tridimensionnelles de la
toiture (4) et dans la travée inférieure les deux profils (95) en une magnitude equivalente
à l'hauteur de la structure tridimensionnelle du plancher du deuxième étage (93).
14. Construction d'après la revendication 13, caractérisée parceque les barres obliques
(96) des treillis des travées des pilliers adjacents aux murs (92a, 93b) vont fixés
par ses extrémités à bandes de plaques (114) qui s'adaptent et fixent grâce à des
vis (115) aux profils tubulaires (95) de ces travées.
15. Construction d'après la revendication 13, caractérisée par le fait que le plancher
du deuxième étage (93) est constitué par un forgeage qui est composé, comme celui
du premier étage, par des cadres supérieurs, à base de profils périfériques (66) et
des noeuds intermédiaires de contact (67) et des panneaux (14) qui s'ajustent sur
ces cadres; coincidant les noeuds intermédiaires de contact (67) avec les noeuds supérieurs
de la structure tridimensionelle de ce plancher (93) avec lesquels se relationent
à travers des moyens d'appui des travées supérieures des pilliers (91b) dans les noeuds
coincidant avec ces pilliers (91b), et de moyens d'appui auxiliaires d'hauteur.
16. Construction d'après les revendication 13 ou 15, caractérisée par le fait que les
noeuds supérieurs et inférieurs des structures tridimensionnelles ne coincidant pas
avec des pilliers (91a,91b) sont constitués par une vis vertical (113) qui relacione
et fixe les extremités des barres (25) qui coincident dans ces noeuds;se fixant dans
les vis (106) des noeuds supérieurs de la structure de la toiture et du plancher du
deuxième étage, profils (108(d'où sont suspendus des panneaux(110)) de faux toit;
tandis que dans les vis des noeuds supérieurs (113) de la structure du plancher du
deuxième étage (93) se trouvent les vis supérieures (81) sur lesquelles s'appuient
les noeuds intermédiaires (67) des cadres du forgeage
17. Construction d'après la revendication 13, caravtérisée par le fait qu'autour de la
toiture (4) se trouve placé une cornière qui ferme contre la superficie inférieur
des tiges enfilées (100) qui constituent les éléments d'appui de la structure de la
toiture sur les pilliers adjacents à la façade (92a).
18. Construction d'après la revendication 13, caractérisée par le fait que la façade ou
fermeture lateral reste achevée supérieurement en un panneau de plaques perforées
(110) lequel est achavé inférieur et supérieurement en ailes intèrnes, la supérieur
desquelles se fixe aux tiges enfilées (100) qui constituent les éléments d'appui de
la structure de la toiture sur les pilliers adjacents à la façade (92a) par dessous
des pièces de fixation de la cornière, tandis que l'inférieur configure un saillant
longitudinal (111) central d'ancrage au profil adjacent de la façade.