TEMPORARY TELESCOPIC BUILDING STRUCTURE AND METHOD FOR INSTALLING SUCH A STRUCTURE

Abstract

TITLE OF THE INVENTION: TEMPORARY TELESCOPIC REAL ESTATE STRUCTURE AND METHOD OF INSTALLING SUCH A STRUCTURE The temporary telescopic real estate structure (100) comprises: - a first surface (105), defining a plane (110), - a pivot joint (125) connecting the first surface (105) to a deployable telescopic mast (115), - the deployable telescopic mast (115) extending along an axis (121) configured to be, in the deployed position, intersecting the plane (110), - a primary fixed frame (135) configured to at least partially surround a lower end (145) of the mast (115), and - at least one secondary mobile frame (140) configured to be fixed to an upper end (150) of the mast (115) and to be moved in translation by the deployment of the mast. Figure for the abbreviation: Figure 1

Description

Title of the invention: TEMPORARY TELESCOPIC REAL ESTATE STRUCTURE AND METHOD FOR INSTALLING SUCH A STRUCTURE Technical field of the invention

[0001] The present invention relates to a temporary telescopic building structure and a method for installing such a structure.

[0002] It applies in particular to the field of event attractions, entertainment and / or shows. State of the art

[0003] The approaches described in this section are approaches that could be pursued, but not necessarily approaches that have been previously conceived or pursued. Therefore, unless otherwise indicated, it should not be assumed that any of the approaches described in this section constitutes prior art simply because of its inclusion in this section.

[0004] In the events industry, there are a variety of configurations and designs of structures that offer immersive experiences to participants. Structures can include temporary stages, modular platforms, artistic constructions, etc. These structures are generally installed using a platform.

[0005] However, such structures may require an installation of a significant duration, for example, one week.

[0006] Furthermore, the complexity of assembling and disassembling these structures can pose major logistical challenges. Installation using a platform can be dangerous for those assembling the structure that is the subject of the invention, as well as for users, and can lead to serious workplace accidents. In particular, assembly errors, resulting from such complexity, can lead to structural defects, compromising safety.

[0007] Also, adverse weather conditions such as wind can affect the integrity of structures. Summary of the invention

[0008] The general concept of the invention consists of implementing at least one surface supporting at least one telescopic mast. Reinforcements can be installed on the mast before its deployment. Thus, the installation of the structure that is the subject of the invention is carried out without the use of a platform.

[0009] Moreover, the time required to set up the structure that is the object of the invention is very short, being, for example, two days.

[0010] Also, the surface and / or a vehicle provides significant stability, enabling the structure of the invention to withstand inclement weather such as strong winds. In particular, the structure of the invention can be retracted very quickly in windy conditions.

[0011] A frame of the structure that is the subject of the invention can also be a wind turbine and produce energy. Brief description of the figures

[0012] Other advantages, purposes and particular features of the invention will become apparent from the following non-limiting description of at least one particular embodiment of the structure that is the subject of the present invention, with reference to the accompanying drawings, in which: [Fig. 1] represents, schematically and in perspective, a first embodiment of the structure that is the subject of the present invention, [Fig.2] represents, schematically and in perspective, a second embodiment of the structure that is the subject of the present invention, [Fig.3] represents, schematically and in perspective, a third embodiment of the structure that is the subject of the present invention, [Fig.4], [Fig.5], [Fig.6], [Fig.7], [Fig.8] represent, schematically and in perspective, deployment stages of the structure that is the object of the invention illustrated in [Fig.3], [Fig.9] schematically and in perspective represents a fourth embodiment of the structure of the present invention with reinforcements in a folded configuration, [Fig. 10] schematically and in perspective represents the fourth embodiment of the structure that is the subject of the present invention with reinforcements in unfolded configuration, [Fig. 1 1] represents, schematically and in perspective, a fifth embodiment of the structure that is the subject of the present invention, [Fig. 12] represents, schematically and in the form of a flowchart, a succession of specific steps of the process that is the subject of the present invention, [Fig. 13] represents, schematically and in perspective, a first surface with struts in a folded position of the structure that is the object of the invention illustrated in [Fig. 1], [Fig. 14] represents, schematically and in perspective, a first platform, in deployment, of the structure object of the present invention illustrated in [Fig. 2], [Fig. 15] schematically represents, in top view, a particular embodiment of another platform of the structure subject to the invention and [Fig. 16] schematically represents, in side view, another platform in folded position of the structure subject to the invention. Description of the implementation methods

[0013] The present description is given by way of non-limiting grammar, each feature of an embodiment being able to be advantageously combined with any other feature of any other embodiment.

[0014] It should be noted from the outset that the figures are not to scale.

[0015] As will be understood from reading this document, various inventive concepts can be implemented by one or more of the methods or devices described below, several examples of which are provided herein. The actions or steps carried out in implementing the method or device can be ordered in any appropriate manner. Consequently, it is possible to construct embodiments in which the actions or steps are performed in a different order than that illustrated, which may include performing certain acts simultaneously, even if they are presented as sequential acts in the illustrated embodiments.

[0016] The expression "and / or", as used in this document, shall be understood as meaning "either or both" of the elements thus joined, that is, elements that are present conjunctively in some cases and disjunctively in others. Multiple elements listed with "and / or" shall be interpreted in the same way, that is, "one or more" of the elements thus joined. Other elements may also be present, other than those specifically identified by the "and / or" clause, whether or not they are related to those specifically identified elements.Thus, by way of non-limiting example, a reference to "A and / or B", when used in conjunction with an open language such as "including", may refer, in one embodiment, to A only (possibly including elements other than B); in another embodiment, to B only (possibly including elements other than A); in yet another embodiment, to A and B (possibly including other elements); etc.

[0017] As used herein in this document, "or" shall be understood inclusively.

[0018] As used in this document, the expression "at least one", with reference to a list of one or more elements, should be understood as meaning at least one element chosen from one or more elements in the list of elements, but not necessarily including at least one of each element specifically enumerated in the list of elements and not excluding any combination of elements in the list of elements. This definition also allows the optional presence of elements other than the elements specifically identified in the list of elements to which the expression "at least one" refers, whether or not they are related to these specifically identified elements.Thus, by way of non-limiting example, "at least one of A and B" (or, equivalently, "at least one of A or B", or, equivalently, "at least one of A and / or B") may refer, in one embodiment, to at least one, possibly including more than one, A, without B present (and possibly including elements other than B); in another embodiment, to at least one, possibly including more than one, B, without A present (and possibly including elements other than A); in yet another embodiment, to at least one, possibly including more than one, A, and at least one, possibly including more than one, B (and possibly including other elements); etc.

[0019] In this document, all transitive expressions such as "comprising", "including", "carrying", "having", "containing", "implying", "holding", "composed of", and others, shall be understood as open, that is, as meaning including but not limited to. Only the transitive expressions "consisting of" and "consisting essentially of" shall be understood as closed or semi-closed transitive expressions, respectively.

[0020] Throughout this description, the terms "lower" and "bottom" refer to what is at the bottom when the structure of the invention is installed on the ground. The terms "upper" and "top" refer to what is at the top when the structure of the invention is installed on the ground. The term "vertical" refers to what is generally in line with the direction of gravity when the structure is installed on the ground. The term "horizontal" refers to what is generally perpendicular to the direction of gravity when the structure is installed on the ground.

[0021] Figure 1, which is not to scale, shows a schematic view of an embodiment of the temporary telescopic building structure 100 with a mast in the extended position. Such a building structure 100 can be any structure on which people can climb, move, walk, interact, etc. The structure 100 of the invention is temporary. Such a temporary structure 100 of the invention can be a structure that can be assembled and disassembled. The structure 100 of the invention can be mechanically deployed. Preferably, the structure 100 of the invention is mobile and transportable.

[0022] In this embodiment, the temporary telescopic building structure 100 comprises a first surface 105, defining a plane 110. A plane 110 may be a rectangular parallelepiped containing the first surface 105. Such a plane 110 may have a small thickness compared to the length and width of the first surface 105. By small, it is understood that this thickness is at least two and five or ten times less than the smallest of the dimensions among the width and length of the first surface 105.

[0023] The first surface 105 may be parallelepiped-shaped, circular, or any other shape. The first surface 105 may have two intersecting edges, 106 and 107. Edge 106 may have a length greater than the length of edge 115. Edge 106 may, for example, have a length greater than or equal to the length of the mast 115. The first surface 105 may be, for example, a transportable support. The first surface 105 may be an assembly of bars configured to support the mast 115. The first surface 105 may include anchoring elements (not shown) for ground support, such as shoring plates, stabilizing slabs, or any other element well known to those skilled in the art.

[0024] In this embodiment, the structure 100 of the invention comprises a pivot joint 125 connecting the first surface 105 to a deployable telescopic mast 115. Preferably, the pivot joint 125 is a hinge coupled to a hydraulic cylinder, the hinge and the cylinder being positioned on either side of the mast 115.

[0025] In embodiments, the structure 100 of the invention comprises the deployable telescopic mast 115 extending along an axis 121 configured to be, in deployed position, intersecting the plane 110.

[0026] The telescopic mast 115 may have several arms of different diameters and lengths. For example, the mast 115 may have 5 arms, 116 to 120. The arms, 116 to 120, of the mast 115 may have a circular, rectangular, or any other shape known to those skilled in the art. Preferably, the mast 115 has a circular cross-section. For example, arm 116 is a lower arm of the mast 115 and arm 120 is an upper arm of the mast 115.

[0027] In some embodiments, the mast 115 further comprises stabilizing feet 190 for attaching 185, said feet 185 being positioned near the lower end 145 of the mast 115. Such attachment means 185 may be a pivot joint. Such means 185 are, for example, hinges.

[0028] The mast 115 can have 3 positions: a folded position, an unfolded position and an deployed position.

[0029] In the folded position, the axis 121 of the mast 115 is substantially parallel to the plane 110. In other words, the mast 115 is horizontal when folded. In the folded position, only the arms 116 and 120 are visible. Preferably, the mast 115, in the folded position, has a length less than or equal to the length of the first surface 105. In other words, the mast 115, in the folded position, has a length less than or equal to the length of the edge 106 of the first surface 105. The axis of the mast 115, in folded position, can be parallel to the plane 110 defined by the first surface 105. In other words, the mast 115, in folded position, can be parallel to the edge 106.

[0030] In the unfolded position, as illustrated in [Fig. 1], the axis 121 of the mast 115 intersects the plane 110. When the mast 115 is unfolded, the axis 121 forms an angle with the plane 110. The angle can have different measures. The axis 121 of the mast 115 is preferably perpendicular to the plane 110. For example, the mast 115 in the unfolded position has two arms, 116 and 120, visible. In the unfolded position, arm 120 is preferably extended. Arm 120 can be extended by rotation. For example, the rotation of arm 120 is achieved by a pivot joint 122 with an axis perpendicular to the axis 121 of mast 115. In other words, arm 120 is, for example, pivot-mounted on arm 119 of mast 115. The pivot joint 122 can be a hinge whose fixed part is attached to an arm 119 of mast 115 and whose moving part is attached to arm 120 of mast 115. Arm 120 can be held extended by a locking system, clips, a screw-nut system, or any other system known to those skilled in the art.The 115 mast can have different lengths. Preferably, the 115 mast in its unfolded position has a length of 15 meters.

[0031] Preferably, the mast 115 further comprises a cable mechanism (not shown). Such a cable mechanism connects, for example, the arm 120 to the first surface 105 for a regular elevation.

[0032] In some embodiments, the mast 115 further comprises stabilizing feet 190 for the mast 115, configured to be fixed to the first surface 105. The feet 190 are, for example, pivot-mounted on the mast 115. In other words, the feet 190 can be pivot-mounted on the arm 116 of the mast 115. Such a pivot connection is, for example, a hinge. The feet 190 are preferably angularly offset from each other about the axis 121 of the mast 115. For example, the feet 190 are positioned, two by two, on each side of the first surface 105.

[0033] The mast 115 may have four stabilizing legs 190. Such legs may be solid or hollow bars. The bars may, for example, have a circular or rectangular cross-section. The legs 190 may have different diameters and lengths. The legs 190 are, for example, dimensioned to support the mast 115. Preferably, the stabilizing legs 190 are telescopic bars.

[0034] The feet 190 can have 2 positions: a folded position and an unfolded position.

[0035] The feet 190, in the folded position, are, for example, positioned along the mast 115. In other words, the feet 190, in the folded position, are, for example, positioned along an axis parallel to the axis 121 of the mast 115. In other words, the feet 190, in the folded position, are, for example, positioned along the arm 116.

[0036] As illustrated in [Fig. 1], the feet 190, in the unfolded position, can be positioned away from the mast 115. In other words, the feet 190 preferentially follow axes intersecting the axis 121 of the mast 115. For example, the feet 190 are telescoped and positioned on either side of the first surface 105.

[0037] In some embodiments, the first surface 105 has pivoting struts 191 configured to support stabilizing feet 190. Such struts 191 are preferably a lattice bar assembly. The struts 191 can be positioned on either side of the first surface 105. Preferably, the first surface 105 has four struts 191. In other words, the first surface 105 can have a number of struts 191 equal to the number of feet 190. The struts 191 are, for example, mounted to the first surface 105 by pivoting (not shown). Such a pivot connection is preferably a hinge coupled to a hydraulic cylinder.

[0038] The struts 191 can be supported on the ground. The struts 191 may include anchoring elements (not shown) for the ground, such as shims, stabilizing slabs, or any other element well known to those skilled in the art. The stabilizing feet 190 for the mast 115 can be configured to be removably attached to the struts 191. In other words, the stabilizing feet 190 for the mast 115 can be configured to be removably attached to the first surface 105. The stabilizing feet 190 may include removable fastening elements (not shown) for the struts 191, such as screw-nut systems, clips, or any other element well known to those skilled in the art.

[0039] The 191 force legs can be in two positions: a folded position and an unfolded position.

[0040] The legs 191, in a folded position, are, for example, positioned along the first surface 105. In other words, the legs 191 can be positioned along an axis parallel to an edge, 106 and / or 107, of the first surface 105. In other words, the legs 191 are, preferably, positioned along an axis parallel to the edge 106 of the first surface 105.

[0041] In variants, the legs 191, in a folded position, are, for example, positioned under the first surface 105.

[0042] As illustrated in [Fig. 1], the legs 191, in the unfolded position, are, for example, positioned along an axis perpendicular to an edge, 106 and / or 107, of the first surface 105. In other words, the legs 191 are preferably positioned along an axis perpendicular to the edge 106 of the first surface 105. The legs 191, in the unfolded position, are, for example, positioned and dimensioned to support the unfolded feet 190. In other words, the legs 191, in the unfolded position, preferentially follow axes that intersect the axes of the feet 190, in the unfolded position.

[0043] In variants, the mast 115 further comprises mast 115 stabilizing feet 190, configured to be placed on the ground. The stabilizing feet 190 may include anchoring elements (not shown) for use on the ground, such as screw-type leveling systems and leveling plates, stabilizing slabs, or any other element well known to those skilled in the art.

[0044] In variants, the arm 120 is deployed by translation along the axis 121 of the mast 115.

[0045] In the deployed position, the axis 121 of the mast 115 intersects the plane 110. The axis 121 It can have different inclinations relative to plane 110. The axis 121 of the mast 115, in its deployed position, is preferably perpendicular to plane 110. For example, arms 116 to 121 are visible when the mast 115 is in its deployed position. Preferably, the mast 115 in its deployed position has a length of 30 meters.

[0046] In embodiments, the structure 100 of the invention comprises a fixed primary frame 135 configured to at least partially surround a lower end 145 of the mast 115. Such a primary frame 135 is preferably dimensioned to fit the dimensions of the mast 115. The frame 135 may be a metal frame comprising bars of solid or hollow cross-section, circular, rectangular, square, I-shaped, or any other shape known to those skilled in the art. Preferably, the frame 135 is a metal frame comprising pre-drilled tubes.

[0047] The frame 135 can be of any shape suitable for the dimensions of the mast 115. For example, the frame 135 may be cylindrical, rectangular, pyramidal, prismatic, or any other shape. The frame 135 may be hollow. The frame may have a lower base 160 and an upper base 162. The primary frame 135 may completely surround the lower end 145. In other words, the lower base 160 may completely surround the lower end 145 of the arm 115. For example, the frame 135 may have substantially the shape of a truncated hollow cone. The cone may have a lower base 160 with a diameter greater than the diameter of an upper base 162 of the cone. Preferably, the armature 135 has the shape of a truncated hollow pyramid whose bases, 160 and 162, are regular polygons with 14 vertices. In other words, the lower base 160 and the upper base 162 are, for example, the outline of a tetradecagon.

[0048] The bars forming the reinforcement 135 can be welded to the lower base 160 and the upper base 162. Preferably, the bars forming the reinforcement 135 are fixed to the lower base 160 and the upper base 162 by means of fasteners. Such fasteners may be screw-nut systems or any other system known to a person skilled in the art.

[0049] In variants (not shown), the armature 135 is an open shape such as an arc of a circle, a portion of a curve or any other shape.

[0050] In other variants (not shown), the upper base 162 has a diameter greater than the diameter of the lower base 160.

[0051] In other variants (not shown), the upper base 162 has a different shape from the lower base 160.

[0052] The frame 135 may include a lower base 160. The shape of the lower base 160 depends on the shape of the frame 135. The frame may include at least one retaining element 161 supporting the lower base 160 to the mast 115. Preferably, the frame 135 is fixed to the lower end 145 of the mast 115. In other words, the frame 135 may be fixed to the arm 116 of the mast 115.

[0053] The frame 135 is, for example, fixed to a metal support held by a second, lower support, locked by a key (pin). In embodiments such as that shown in [Fig. 1], the structure 100 of the invention comprises a movable secondary frame 140 configured to be fixed to an upper end 150 of the mast 115.

[0054] Such a secondary armature 140 is preferably dimensioned to fit the dimensions of the mast 115.

[0055] The frame 140 can be of any shape suitable for the dimensions of the mast 115. For example, the frame 140 may be cylindrical, rectangular, pyramidal, prismatic, or any other shape. The frame 140 may be hollow. The frame 140 may completely surround the upper end 150. For example, the frame 140 may be hollow conical. The frame may have a base 141. Preferably, the frame 140 may be hollow pyramidal in shape, with a base 141 that is a regular polygon with 14 vertices. In other words, the base 141 is, for example, the outline of a tetradecagon. The base 141 of the reinforcement 140 is preferably dimensioned to fit the dimensions of the upper base 162 of the reinforcement 135. In other words, the base 141 of the reinforcement 140 may have dimensions slightly smaller than the upper base 162 of the reinforcement.For example, base 141 has a slightly smaller diameter than the upper base 162.

[0056] In variants, the armature 140 is an open shape such as an arc of a circle, a portion of a curve or any other shape.

[0057] The frame 140 may include a lower base 141. The shape of the base 141 is dependent on the shape of the frame 140. The frame may include at least one retaining element 142 supporting the top 143 to the mast 115. Preferably, the frame 140 is fixed to the upper end 150 of the mast 115. In other words, the frame 140 may be fixed to the arm 120 of the mast 115 by removable retaining elements 142.

[0058] Such reinforcements, 135 and / or 140, may be a metal frame comprising bars of solid or hollow section, circular, rectangular, square, I-shaped, or any other shape known to a person skilled in the art.

[0059] The metal frames of each reinforcement 135 and / or 140 are preferably divided into 14 sub-parts. The sub-parts may be panels comprising a set of tubes welded together. The panels are, for example, configured to hook onto one another. The panels may include fastening systems such as wedges, screw-nut systems, or any other fastening system known to a person skilled in the art. In some embodiments, at least one secondary movable armature 140 is configured to be moved translationally by the deployment of the mast 115. At least one secondary armature 140 can be movable relative to the primary armature 135. The deployment of the mast 115 causes, for example, the deployment of the arms 117 to 120. With at least one armature 140 being held to the arm 120, the deployment of the mast 115 can cause the translation of at least one armature 140.

[0060] In embodiments (not shown), the structure of the invention comprises several movable secondary reinforcements. An upper secondary reinforcement may be a reinforcement fixed to the upper end of the mast. Each lower base of each secondary reinforcement may be dimensioned to fit the upper base of each other secondary reinforcement. For example, the structure of the invention comprises a secondary reinforcement on each arm of the mast.

[0061] The mast 115 is preferably dimensioned to support the primary reinforcement 135 and / or at least one secondary reinforcement 140.

[0062] The first surface 105 is preferably dimensioned to support the mast 115, the primary reinforcement 135 and / or at least one secondary reinforcement 140. In other words, the pivot joint 125 is, for example, dimensioned to support the mast 115, the primary reinforcement 135 and / or at least one secondary reinforcement 140.

[0063] In embodiments, the primary reinforcement 135 is defined by an internal volume 155 extending from a lower base 160 along the axis 121. The internal volume 155 can be defined by the lower base 160 and the upper base 162. Preferably, the internal volume 155 is hollow.

[0064] In embodiments, the mast 115 is configured so that, in the unfolded position, the reinforcements, 135 and 140, are positioned near the lower end of the mast 115, at least one secondary reinforcement 140 being included at least partially in the internal volume 155.

[0065] The reinforcements, 135 and 140, can have two configurations: a folded configuration and a deployed configuration. The configurations of the reinforcements, 135 and 140, depend on the configuration of the mast 115. For example, when the mast is in position When unfolded, the reinforcement bars, 135 and 140, are in a folded configuration. In other words, a lower base 141 of at least one secondary reinforcement bar 140 can be positioned close to the lower base 160 of the primary reinforcement bar 135. In other words, the lower base 141 of at least one secondary reinforcement 140 and the lower base 160 of the primary reinforcement 135 are, for example, positioned at the lower end 145 of the mast 115. At least one reinforcement 140 may be wholly or partially contained within the internal volume 155. For example, the base 141 of at least one reinforcement 140 is contained within the internal volume 155. The base 141 may be positioned above the retaining elements 161 of the reinforcement 135. The top 143 of the reinforcement 140 may be positioned above the internal volume 155.

[0066] In some embodiments, the mast 115 is configured so that, in the deployed position, at least a portion of a secondary reinforcement 140 is positioned outside the internal volume of the primary reinforcement 135. When the mast is in the deployed position, the reinforcements 135 and 140 are in their deployed configuration. In other words, the lower base 141 of at least one secondary reinforcement 140 can be positioned close to the upper base 162 of the primary reinforcement 135.

[0067] In some embodiments, at least one secondary frame 140 is configured to translate within the internal volume 155 of the primary frame 135 to move from the folded position to the deployed position. The translation of at least one frame 140 is, for example, carried out during the deployment of the mast 115.

[0068] In variants (not shown), the primary armature 135 is configured to translate within the internal volume 156 of at least one secondary armature 140 to move from the folded configuration to the deployed configuration.

[0069] In some embodiments, the structure 100 of the invention further comprises a vehicle 101 supporting the first surface 105. Such a vehicle is dimensioned to support the first surface, the mast 115, the primary frame 135, and / or at least one secondary frame 140. The first surface 105 may be removable from the vehicle 101. Such a vehicle 101 may be driven or towed. For example, the vehicle 101 is motorized.

[0070] In some embodiments, the mast 115 further comprises feet 190 for stabilizing the mast 115, configured to be fixed to the first surface 105.

[0071] In some embodiments, the first vehicle 101 has pivoting struts 191. The struts 191 are, for example, pivotally mounted on the first vehicle. Such a pivot joint is preferably a hinge coupled to a hydraulic cylinder. The struts 191 may rest on the ground. The struts 191 may include anchoring elements (not shown) for the ground, such as shoring plates, stabilizing slabs, or any other element well known to those skilled in the art. The stabilizing feet 190 of the mast 115 are preferably configured to be fixed to the struts 191. In other words, the feet 190 stabilizing the mast 115, can be configured to be removably fixed to the first vehicle 101.

[0072] In some embodiments, at least one vehicle is a trailer. The trailer may include a coupling device adapted for coupling to a towing vehicle. Such a vehicle 101 may include anchoring elements (not shown) for use on the ground, such as leveling plates, stabilizing slabs, or any other element well known to those skilled in the art.

[0073] Figure 2, which is not to scale, shows a schematic view of a second embodiment of the temporary telescopic building structure 200 that is the subject of the invention.

[0074] In embodiments, the structure 200 of the invention further comprises a first platform 265, at least one dimension of said first platform 265 being equal to or greater than a dimension of the lower base 260 of the primary frame 235.

[0075] The first platform 265 can be of different dimensions and shapes. Preferably, the first platform 265 has a parallelepiped shape. A length of the first platform 265 is, for example, equal to a length of the first surface 205. Preferably, the first platform 265 is contained in the plane 110, such as that shown in [Fig. 1]. The first platform 265 can be made of metal, wood, plastics, glass, or composite materials.

[0076] The first platform 265 is preferably juxtaposed to the first surface 205. In other words, the first platform can be defined in a plane coplanar to the plane 110, such as that represented in [Fig.1].

[0077] The first platform 265 may include two floors, 266 and 267. Such a floor, 266 or 267, may be a portion of the first platform 265. Each deployed floor, 266 and 267, is, for example, positioned at two opposite edges of the first surface 205. The first surface 205 may include connecting elements (not shown) to the floors, 266 and 267. Such connecting elements are, for example, pivot joints or slides. Preferably, the first platform 265 is mounted to the first vehicle 201 by hinges. In other words, the first platform can be pivotally mounted to the first surface 205. In other words, each floor, 266 and / or 267, can be pivotally mounted to the first surface 205.

[0078] The first platform 265 may include anchoring elements (not shown) on a ground such as support columns, shoring plates, stabilizing slabs, props or any other element well known to a person skilled in the art.

[0079] The vehicle 201 may include the first platform 265. The first platform 265 is, for example, deployable from the first vehicle 201.

[0080] At least one such vehicle 201 may include anchoring elements (not shown) on a ground such as shoring plates, stabilizing slabs or any other element well known to a person skilled in the art.

[0081] In some embodiments, the mast 215 further comprises mast 215 stabilizing feet 290 configured to be attached to the first surface 205. Preferably, the feet 290 are attached with removable connecting elements. The mast 215 stabilizing feet 290 can be configured to be removably attached to the struts 291. In other words, the mast 215 stabilizing feet 290 can be configured to be removably attached to the first surface 205. The stabilizing feet 290 may include removable attachment elements (not shown) for the struts 291, such as screw-nut systems, clips, or any other element well known to those skilled in the art.

[0082] The first surface may have holes 293 for the passage of the stabilizing feet 290. Preferably, the holes 293 are positioned so that the feet 290, in the unfolded position, are in contact with the struts 291.

[0083] In variants, the mast 215 further comprises mast 215 stabilizing feet 290, configured to be fixed to the first platform 265 and to rest on the ground. For example, two feet 290 may be removably fixed to the first platform 265 and two feet 290 may rest on the ground. In other words, two feet 290 may be fixed by removable fastening elements to the platforms 266 and 267, respectively.

[0084] In some embodiments, the vehicle 201 includes hydraulic cylinders (not shown) configured to deploy said first platform 265. The first platform 265 can be deployed from the first vehicle 201. The hydraulic cylinders deploy, for example, the floors, 266 and 267, on either side of the first surface 205.

[0085] The first vehicle 201 can be dimensioned to support the first platform 265, the first surface 205, the mast 215.

[0086] The other characteristics of the structure 200 which is the subject of the invention are already described in [Fig.1], they are not described again here.

[0087] Figure 3, which is not to scale, shows a schematic view of a third embodiment of the structure 300 of the invention with another vehicle 370 coupled to the first vehicle.

[0088] In some embodiments, the structure 300 of the invention further comprises at least one other vehicle 370, configured to be coupled to the first vehicle 301, at least one other said vehicle 370 being configured to accommodate an extension of the first platform 365. At least one other vehicle 370 is, preferably, a trailer. Another vehicle 370 may include a coupling device suitable for coupling to the first vehicle 301 or to a tractor vehicle.

[0089] Another vehicle 370 may include an extension of the first platform 365. An extension of the first platform may include two additional floors, 368 and 369. At least one other vehicle 370 may include the two additional floors, 368 and 369, of the first platform 365. In other words, another vehicle 370 may include all four floors, 366 to 369. Each deployed floor, 368 and 369, is, for example, juxtaposed to a respective edge of the floors, 366 and 367. Preferably, the floors, 368 and 369, are defined in a plane coplanar to the plane 110, such as that shown in [Fig. 1]. In other words, the additional floors, 368 and 369, may be coplanar with the floors, 366 and 367.

[0090] Another vehicle 370 includes, for example, a second surface 371. The second surface 371 is, for example, juxtaposed to an edge of the first surface 305. In other words, the second surface 371 can be contained within the plane 110, such as that shown in [Fig. 1]. Each floor, 368 and 369, when deployed, is, for example, juxtaposed to two opposite edges of the second surface 371.

[0091] In embodiments, the mast 315 further comprises feet 390 for stabilizing the mast 315, configured to be fixed to the first surface 305. In embodiments, the mast 315 further comprises feet 390 for stabilizing the mast 315, configured to be fixed to the first vehicle 301.

[0092] In variants, the mast 315 further comprises mast 315 stabilizing feet 390, configured to be fixed to the first platform 365. In other words, the feet 390 are, for example, fixed by removable fixing elements to the floors, 366 to 369.

[0093] In variants, the first vehicle 301 includes the two additional floors, 368 and 369.

[0094] In variants (not shown), the structure of the invention comprises: - at least one other vehicle supporting a second surface, - a second pivot joint connecting the second surface to a second deployable telescopic mast, - the second deployable telescopic mast extending along an axis configured to be, in the deployed position, intersecting the plane, - a second fixed primary frame configured to at least partially surround a lower end of the second mast, and - at least one second mobile secondary frame configured to be attached to an upper end of the second mast, and to be moved in translation by the deployment of the second mast.

[0095] The other characteristics of the structure 300 which is the subject of the invention are already described in [Fig.1] and in [Fig.2], they are not described again here.

[0096] Figures 4 to 8 represent the deployment steps of the third embodiment of the structure of the invention illustrated in [Fig. 3], showing: - in [Fig. 4], another vehicle 370 coupled to a first vehicle 301, the first vehicle 301 supporting the mast 315 in the folded position and the second vehicle supporting two floors of the first platform 365, - in [Fig. 5], the deployment of two additional floors of the first platform 365, - in [Fig. 6], the deployment of a first arm 320 of the mast 315 in the folded position, - in [Fig. 7], the unfolding of the mast 315, the mast 315, then being in the unfolded position, comprising the feet 390 fixed to the first surface 305 and - in [Fig.8], the deployment of stabilizing feet 390 on the first surface 305.

[0097] Figures 9 and 10 represent, schematically and in perspective, a fourth embodiment of the structure 900 of the present invention with reinforcements, 935 and 940, in folded and unfolded configuration.

[0098] In embodiments, the structure 900 of the invention further comprises at least one other platform 980 positioned in the internal volume 955 of the primary frame 935, at least said other platform being juxtaposed to the lower base 960 of the primary frame 935.

[0099] The structure 900 which is the subject of the invention may include another platform 900.

[0100] In variants (not shown), the structure which is the object of the invention comprises several other platforms.

[0101] Each other platform 980 is preferably dimensioned to adapt to the shape of the reinforcement bars 935 and 940. Each other platform 980 has, for example, an external dimension less than or equal to the dimension of the base 960 of the primary reinforcement bar 935. Each other platform 980 may have an internal dimension greater than or equal to the dimension of the base 941 of the secondary reinforcement bar 940. In other words, each other platform 980 has, for example, dimensions adapted to the dimensions of the sub-parts of the primary reinforcement bar 935 and / or of at least one secondary reinforcement bar 940.

[0102] For example, each other 980 platform has substantially a circular crown shape. Preferably, each other 980 platform has a regular 14-vertex polygonal crown shape. In other words, each other platform can have a hollow tetradecagon shape.

[0103] Each other platform 980 may include at least one floor 983. Each other platform 980 has, for example, 14 floors 980. Each other platform 980 may include floors 983 of different shapes. Preferably, each Another platform 980 has trapezoidal floors 983. Such trapezoids can be positioned next to each other, with the non-parallel sides of each trapezoid juxtaposed with each other.

[0104] Preferably, each additional platform 980 rests on support feet 981 placed on another platform, on the first platform 965, on the first surface 905 and / or on the second surface 971. Each additional platform 980 includes, for example, safety panels 982 separating the space on the platform from the secondary frame 940 to a predetermined height. Such a height is, for example, 3 meters.

[0105] The first vehicle 901 can be dimensioned to support the first platform 965, the first surface 905 and the mast 915.

[0106] In [Fig. 9], the primary reinforcement 935 and at least one secondary reinforcement 940 are observed in a folded configuration, the reinforcements being fixed to a mast 915 in the unfolded position. One reinforcement 940 is preferentially positioned within the volume 955 of the reinforcement 935.

[0107] As shown in [Fig. 10], the primary reinforcement 935 and at least one secondary reinforcement 940 are in their unfolded configuration, the reinforcements being fixed to a mast 915 in the deployed position. For example, the upper base 962 of the reinforcement 935 is positioned slightly above the base 941 of the secondary reinforcement 940. In other words, an upper end of the reinforcement 935 can overlap a lower end of the reinforcement 940.

[0108] In embodiments, at least one secondary armature 940 is configured to be rotationally movable about the mast 915, about an axis of rotation being the axis 921 of the mast 915. The mast 915 may include rotating retaining elements 942 for at least one armature 940. Such retaining elements 942 may be a pivot joint, ball bearings, or any other system known to those skilled in the art. The retaining elements 942 are preferably positioned on the arm 920 of the mast 915. The mast includes, for example, a motor that rotates at least one secondary armature 940.

[0109] In some embodiments, the primary armature 935 is configured to be rotationally movable about the mast 915, about an axis of rotation being the axis 921 of the mast 915. The mast 915 may include rotating retaining elements 961 for the armature 935. Such retaining elements 961 may be a pivot joint, ball bearings, or any other system known to those skilled in the art. The retaining elements 961 are preferably positioned on the arm 916 of the mast 915. The mast includes, for example, a motor that rotates at least one primary armature 935.

[0110] In some embodiments, the structure 900 of the invention further comprises a generator (not shown) configured to produce electrical energy depending on the rotation of at least one secondary armature 940. In other words, the structure 900 which is the subject of the invention can include a wind turbine, the moving part being at least one secondary armature 940.

[0111] The other characteristics of the structure 900 which is the subject of the invention are already described in [Fig.1] to [Fig.8], they are not described again here.

[0112] Figure 11 shows a fifth embodiment of the structure 1100 which is the subject of the present invention.

[0113] In some embodiments, the structure 1100 of the invention further comprises access means, 1105 and / or 1110, to at least one platform, 1165 and / or 1180. Such access means, 1105 and / or 1110, may be ramps, portable stairs, escalators, and / or lifts for persons with reduced mobility. The structure 1100 of the invention comprises, for example, barriers 1115 positioned around the perimeter of at least one platform, 1165 and / or 1180.

[0114] In embodiments, at least one frame, 1135 and / or 1140, comprises mechanical and / or electronic components 1195. Such components 1195 may be screens, sound systems, or electronic or mechanical decorations. For example, the electronic components are video LEDs (Light-Emitting Diodes). The components 1195 are, for example, attached to at least one frame, 1135 and / or 1140, by specific supports, screw-nut systems, or any other system known to those skilled in the art. Preferably, at least one frame 1135 and / or 1140 is a metal frame comprising perforated tubes for accommodating such mechanical and / or electronic components 1195.

[0115] The first vehicle 1001 is dimensioned to support the first platform 1165, the first surface 1005, the mast 1015, at least one means of access 1110 to the second platform 1180 and / or part of the barriers 1115.

[0116] At least one other vehicle 1070 is dimensioned to support the extension of the first platform 1165, the second surface 1005, the mast 1015 and / or at least one means of access 1105 to the first platform 1165 and / or part of the barriers 1115.

[0117] The other characteristics of the structure 1100 which is the subject of the invention are already described in [Fig.1] to [Fig.10], they are not described again here.

[0118] Figure 12 shows a schematic flowchart of a succession of particular steps of the process 1200 which is the subject of the present invention.

[0119] In embodiments, the method 1200 for installing a structure that is the subject of the invention comprises: - a step 1220 of unfolding the mast, 115, 215, 315 and / or 915, on a first surface, - a step 1235 of fixing at least one secondary reinforcement, 240, 340, 940 and / or 1140, on the mast, 115, 215, 315 and / or 915, - a step 1240 of fixing a primary reinforcement, 135, 235, 335, 935 and / or 1135, on the mast, 115, 215, 315 and / or 915, - a step 1250 of deployment of mast 115, 215, 315 and / or 915.

[0120] During step 1220, a first vehicle can be stabilized on the ground. The upper arm of the mast is, for example, unfolded by rotation and fixed in the deployed position. The mast can be unfolded by rotation of the pivot joint and placed vertically relative to the first surface.

[0121] During a step 1235, at least one secondary armature is fixed to the mast.

[0122] During a step 1240, a primary reinforcement is, for example, positioned around at least one secondary frame and in turn fixed to the mast.

[0123] During a step 1250, the mast is deployed. At least one secondary armature can translate relative to a primary armature.

[0124] In optional embodiments, the installation method 1200 further includes, upstream of the mast unfolding step 1220, 115, 215, 315 and / or 915: - a step 1210 of stabilizing the first surface and / or the first vehicle,

[0125] - a step 1215 of leveling the floor supports.

[0126] In optional embodiments, the installation method 1200 comprises, Furthermore, prior to step 1235 of fixing at least one secondary reinforcement on the mast, 115, 215, 315 and / or 915: - a step 1225 of deployment of a first platform and - a step 1230 of deployment of the stabilizing feet.

[0127] In optional embodiments, the installation method 1200 further comprises, upstream of step 1220 of unfolding at least one mast, 115, 215, 315 and / or 915: - a step 1205 of coupling at least one other vehicle to a first vehicle.

[0128] In optional embodiments, the installation method 1200 further comprises, downstream of step 1225 of fixing at least one secondary reinforcement on the mast, 115, 215, 315 and / or 915: - a 1245 deployment step of at least one other platform.

[0129] Figure 13, not to scale, shows a schematic view of the first surface 105 with struts 191 in the folded position of the structure of the invention, such as that illustrated in Figure 1. The struts 191, in the folded position, are, for example, positioned along the first surface 105. In other words, the struts 191 can be positioned along an axis parallel to an edge, 106 and / or 107, of the first surface 105. That is to say, the struts 191 are preferably positioned along an axis parallel to the edge 106 of the first surface 105.

[0130] The feet 190, in the folded position, are, for example, positioned along the mast 115. In other words, the feet 190, in the folded position, are, for example, positioned along an axis parallel to the axis 121 of the mast 115. In other words, the feet 190, in the folded position, are, for example, positioned along the arm 116.

[0131] Figure 14, which is not to scale, shows a schematic view of the first platform 265, in deployment, of the structure of the invention, such as that illustrated in Figure 2. The floor supports 292 can be positioned on either side of the first surface 201. Preferably, the floor supports 292 are dimensioned to support the first platform 265. In other words, each floor support 292 has, for example, a length substantially equal to each floor, 266 and / or 267.

[0132] Each floor support 292 can be positioned along an axis perpendicular to the axis of the struts 291, in the unfolded position. In other words, each floor support 292 can be positioned along an axis perpendicular to an edge, 206 and / or 207, of the first surface 205. In other words, the floor supports 292 are preferably positioned along an axis perpendicular to the edge 206 of the first surface 205.

[0133] The first platform 265 can be mounted on sliding joints configured to translate each floor, 266 and / or 267, on the floor supports 292 of the first surface 205. Each floor, 266 and / or 267, comprises, for example, two planks. The planks of each floor, 266 and / or 267, can be pivotally mounted to each other. Such a pivot joint can be hinges. Each floor, 266 and / or 267, is preferably pivotally mounted on the first surface 205.

[0134] Figure 15, not to scale, shows a schematic view of a particular embodiment of another platform 1500 of the structure 900 of the invention, such as that illustrated in Figure 9. Another platform 1500, in its unfolded position, has a regular polygonal crown shape with 14 vertices. In other words, another platform 1500 can have a hollow tetradecagon shape.

[0135] Another platform 1500 may include at least one floor 1501. Another platform 1500 may, for example, have 14 floors 1501. Another platform 1500 may include floors 1501 of different shapes. Preferably, another platform 1500 may include trapezoidal floors 1501. When another platform is in the unfolded position, such trapezoids may be positioned next to each other, with the non-parallel sides of each trapezoid juxtaposed. Such juxtaposed sides form, for example, junctions 1502 between two floors 1501. In other words, the respective two non-parallel sides of two floors 1501 in a junction 1502 may have two parallel axes.

[0136] Figure 16, which is not to scale, shows a schematic view of another platform 1500 in the folded position of the structure 900 which is the subject of the invention, such as that illustrated in Figure 9.

[0137] In embodiments, at least one other platform 980, such as the one illustrated in [Fig. 9], may include a folding device superimposed on at least one other said platform 980. In other words, such a folding device can superimpose each floor 1501 on top of the others. For example, such a folding device is a pivot assembly of the floors 1501. Each floor 1501 can be pivotally mounted to another floor 1501. In other words, the junctions 1502 include, for example, a pivot joint 1503 with an axis of rotation parallel to the two respective axes of the two non-parallel sides of said junction 1502, such as the one illustrated in [Fig. 15]. Preferably, a single junction 1502, such as the one illustrated in [Fig. 15], may include a folding device superimposed on at least one other said platform 980. In other words, such a folding device can superimpose each floor 1501 on top of the other. For example, such a folding device is a pivot joint of the floors 1501. Each floor 1501 can be pivotally mounted to another floor 1501. In other words, the junctions 1502 include, for example, a pivot joint 1503 with an axis of rotation parallel to the two respective axes of the two non-parallel sides of said junction 1502, such as the one illustrated in [Fig. 15]. 15], does not include a pivot joint 1503. In other words, when another platform 1500 is in a folded position, the floors 1501 can be positioned on top of each other.In other embodiments (not shown), another platform 1500, in a folded position, is configured to be positioned on the first surface 905, such as that illustrated in [Fig.9]. In other words, another platform 1500, in a folded position, can be configured to be positioned on the first vehicle 901, such as that illustrated in [Fig.9].

[0138] The other features of another 1500 platform being already described in [Fig. 9] to 10, they are not described again here. Presentation of the invention

[0139] The present invention aims to remedy all or part of the drawbacks of the prior art.

[0140] To this end, according to a first aspect, the present invention relates to a temporary telescopic building structure, which comprises: - a first surface, defining a plane, - a pivot joint connecting the first surface to a deployable telescopic mast, - the deployable telescopic mast extending along an axis configured to be, in the deployed position, intersecting the plane, - a fixed primary frame configured to at least partially surround a lower end of the mast, and - at least one secondary mobile frame configured to be fixed to an upper end of the mast and to be moved in translation by the deployment of the mast.

[0141] Thanks to these provisions, the structure that is the subject of the invention can be entirely assembled on the ground. Indeed, the assemblers of the structure that is the subject of the invention can unfold and deploy the mast while working from the ground, without construction equipment. Similarly, the erectors of the structure described in the invention can mount the reinforcement bars on the mast and deploy them while working from the ground, without construction equipment. Assembling such a structure described in the invention is quick and safe for the erectors. Thus, the structure described in the invention allows for assembly requiring minimal manual handling.

[0142] These provisions make it possible not to use equipment, such as a platform, for the assembly and disassembly of the structure which is the subject of the invention.

[0143] In addition, the mast can move from a deployed position to a deployed position quickly, allowing the structure of the invention to be retracted in case of severe weather.

[0144] In embodiments, the primary reinforcement defines an internal volume extending from a lower base and in a general direction defined by the axis, the mast being configured so that, in the unfolded position, the reinforcements are positioned near the lower end of the mast, at least one secondary reinforcement being at least partially contained within the internal volume, the mast being configured so that, in the deployed position, at least a portion of a secondary reinforcement is positioned outside the internal volume of the primary reinforcement,

[0145] at least one secondary armature being configured to translate within the internal volume of the primary armature to move from the folded position to the deployed position.

[0146] These embodiments allow the reinforcement bars to be mounted on the mast when the mast is unfolded. Thus, the unfolding of the mast allows the reinforcement bars of the structure that is the subject of the invention to be positioned in their final position. Indeed, the erectors of the structure that is the subject of the invention can mount the reinforcement bars on the mast and unfold the reinforcement bars while working from the ground, without construction equipment.

[0147] In embodiments, the structure which is the object of the invention further comprises a vehicle supporting the first surface.

[0148] These embodiments allow the structure that is the object of the invention to be mobile and easily movable.

[0149] In some embodiments, at least one vehicle is a trailer.

[0150] These embodiments allow the structure that is the object of the invention to be hitched to a tractor vehicle in order to be moved.

[0151] In embodiments, the structure of the invention further comprises a first platform, at least one dimension of said first platform being equal to or greater than a dimension of the lower base of the primary frame.

[0152] These embodiments allow users to climb onto the structure that is the subject of the invention. The structure can thus be visited. The platform also allows the structure to have a performance stage. The first platform allows for assembly requiring minimal manual handling.

[0153] In embodiments, the structure which is the object of the invention further comprises at least one other vehicle, configured to be coupled to the first vehicle along the first axis, at least one other said vehicle being configured to accommodate an extension of the first platform.

[0154] These embodiments allow a second vehicle to be coupled to the first vehicle. Thus, the structure of the invention can accommodate a larger first platform area.

[0155] In embodiments, the structure of the invention further comprises at least one other platform positioned in the internal volume of the primary frame, at least said other platform being juxtaposed to the lower base of the primary frame.

[0156] These embodiments allow users to climb onto another level of the structure that is the subject of the invention. Users can thus visit the internal volume of the primary reinforcement.

[0157] In addition, at least one platform allows assembly requiring little manual handling.

[0158] In some embodiments, the mast further comprises: - means for attaching stabilizing feet, said means being positioned near the lower end of the mast and - mast stabilizing feet, configured to be fixed to the first surface.

[0159] These embodiments improve the stability of the structure that is the subject of the invention.

[0160] In embodiments, at least one secondary armature is configured to be rotationally movable around the mast, along an axis of rotation being the axis of the mast.

[0161] These embodiments allow a secondary frame to rotate around the mast.

[0162] In embodiments, the structure of the invention further comprises a generator configured to produce electrical energy as a function of the rotation of at least one secondary armature.

[0163] These embodiments allow the structure of the invention to include a wind turbine. Thus, the rotation of a secondary armature makes it possible to produce energy. The energy produced can be used to power electronic components of the structure of the invention.

[0164] According to a second aspect, the present invention relates to a method for installing a structure, the object of the invention, which comprises: - a step of unfolding a mast, - a step of attaching at least one secondary reinforcement to the mast, - a step of attaching a primary reinforcement to the mast and - a stage of mast deployment.

[0165] In optional embodiments, the method further comprises, upstream of the mast unfolding step: - a coupling stage of a first vehicle to at least one other vehicle, - a deployment stage of a first platform and - a deployment step of at least one other platform.

[0166] In optional embodiments, the method further comprises, downstream of the step of fixing at least one frame on the mast: - a step of deploying at least one other platform.

[0167] The advantages, purposes and particular characteristics of the method of installing a structure, the subject of the invention, being similar to those of the structure, the subject of the invention, are not recalled here.

Claims

Demands

1. Temporary telescopic building structure (100, 200, 300, 900, 1100), characterized in that it comprises: - a first surface (105, 205, 305, 905, 1005), defining a plane (110), - a pivot joint (125) connecting the first surface (105, 205, 305, 905, 1005) to a deployable telescopic mast (115, 215, 315, 915, 1015), - the deployable telescopic mast (115, 215, 315, 915, 1015) extending along an axis (121, 921) configured to be, in the deployed position, intersecting the plane (110), - a fixed primary frame (135, 235, 335, 935, 1135) configured to at least partially surround a lower end (145) of the mast (115, 215, 315, 915, 1015), and - at least one secondary mobile frame (140, 240, 340, 940, 1140) configured to be fixed to an upper end (150) of the mast (115, 215, 315, 915, 1015) and to be moved in translation by the deployment of the mast (115, 215, 315, 915, 1015).

2. Structure (100, 200, 300, 900, 1100), according to claim 1, wherein: - the primary reinforcement (135, 235, 335, 935, 1135) defines an internal volume (155, 955) extending from a lower base (160, 260, 960) and in a general direction defined by the axis (121, 921), the mast (115, 215, 315, 915, 1015) being configured so that, in the unfolded position, the reinforcements (135, 240, 235, 240, 335, 340, 935, 940, 1135, 1140) are positioned near the lower end of the mast (115, 215, 315, 915, 1015), at least one reinforcement (140, 240, 340, 940, 1140) secondary being included at least partially within the internal volume (155, 955), - the mast (115, 215, 315, 915, 1015) being configured so that, in the deployed position, at least a portion of a secondary reinforcement (140, 240, 340, 940, 1140) is positioned outside the internal volume of the primary reinforcement (135, 235, 335, 935, 1135), at least one secondary reinforcement (140, 240, 340, 940, 1140) being configured to translate within the internal volume (155, 955) of the primary reinforcement (135, 235, 335, 935, 1135) to move from the folded position to the deployed position.

3. Structure (100, 200, 300, 900, 1100), according to any one of claims 1 or 2, further comprising a vehicle (101, 201, 301, 1001) supporting the first surface (105, 205, 305, 905, 1005)

4. Structure (100, 200, 300, 900, 1100), according to claim 3, wherein at least one vehicle (101, 201, 301, 1001) is a trailer.

5. Structure (100, 200, 300, 900, 1100), according to any one of claims 1 to 4, further comprising a first platform (265, 365, 965, 1165), at least one dimension of said first platform (265, 365, 965, 1165) being equal to or greater than a dimension of the lower base (160, 260, 960) of the primary reinforcement (135, 235, 335, 935, 1135).

6. Structure (100, 200, 300, 900, 1100), according to any one of claims 3 to 5, which further comprises at least one other vehicle (370, 1070), configured to be coupled to the first vehicle (101, 201, 301), at least one other said vehicle (370, 1070) being configured to accommodate an extension of the first platform (265, 365, 965, 1165).

7. Structure (100, 200, 300, 900, 1100), according to any one of claims 1 to 6, further comprising at least one other platform (980, 1180, 1500) positioned in the internal volume (155, 955) of the primary reinforcement (135, 235, 335, 935, 1135), at least said other platform (980, 1180, 1500) being juxtaposed to the lower base (160, 260, 960) of the primary reinforcement (135, 235, 335, 935, 1135).

8. Structure (100, 200, 300, 900, 1100), according to any one of claims 1 to 7, wherein the mast (115, 215, 315, 915, 1015) further comprises: - attachment means (185) for stabilizing feet (190, 290, 390), said means being positioned near the lower end (145) of the mast (115, 215, 315, 915, 1015) and - the stabilizing feet (190, 290, 390) of the mast (115, 215, 315, 915, 1015), configured to be connected to the first surface (105, 205, 305, 905, 1005).

9. Structure (100, 200, 300, 900, 1100), according to any one of claims 1 to 8, wherein at least one secondary frame (140, 240, 340, 940, 1140) is configured to be rotationally movable around the mast (115, 215, 315, 915, 1015), about an axis of rotation being the axis (121, 921) of the mast (115, 215, 315, 915, 1015).

10. Structure (100, 200, 300, 900, 1100), according to any one of claims 1 to 9, further comprising a generator configured to produce electrical energy as a function of the rotation of at least one secondary armature (140, 240, 340, 940, 1140).

11. A method (1200) for installing a temporary telescopic building structure (100, 200, 300, 900, 1100) according to any one of claims 1 to 10, characterized in that it comprises: - a step (1220) of unfolding the mast (115, 215, 315, 915, 1015), - a step (1235) of attaching at least one secondary reinforcement (240, 240, 340, 940, 1140) to the mast (115, 215, 315, 915, 1015), - a step (1240) of attaching a primary reinforcement (135, 235, 335, 935, 1135) to the mast (115, 215, 315, 915, 1015), - a step (1250) of mast deployment (115, 215, 315, 915, 1015).

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