EP4118023A1 - Procédé de formation d'une structure de guidage pour guider une cabine d'ascenseur dans une gaine d'ascenseur - Google Patents

Procédé de formation d'une structure de guidage pour guider une cabine d'ascenseur dans une gaine d'ascenseur

Info

Publication number
EP4118023A1
EP4118023A1 EP21707750.2A EP21707750A EP4118023A1 EP 4118023 A1 EP4118023 A1 EP 4118023A1 EP 21707750 A EP21707750 A EP 21707750A EP 4118023 A1 EP4118023 A1 EP 4118023A1
Authority
EP
European Patent Office
Prior art keywords
tool
shaft
elevator shaft
elevator
guide structure
Prior art date
Legal status (The legal status is an assumption and is not a legal conclusion. Google has not performed a legal analysis and makes no representation as to the accuracy of the status listed.)
Pending
Application number
EP21707750.2A
Other languages
German (de)
English (en)
Inventor
Andrea CAMBRUZZI
Michael Geisshüsler
Daniel Meierhans
Christian Studer
Julian STÄHLI
Current Assignee (The listed assignees may be inaccurate. Google has not performed a legal analysis and makes no representation or warranty as to the accuracy of the list.)
Inventio AG
Original Assignee
Inventio AG
Priority date (The priority date is an assumption and is not a legal conclusion. Google has not performed a legal analysis and makes no representation as to the accuracy of the date listed.)
Filing date
Publication date
Application filed by Inventio AG filed Critical Inventio AG
Publication of EP4118023A1 publication Critical patent/EP4118023A1/fr
Pending legal-status Critical Current

Links

Classifications

    • B—PERFORMING OPERATIONS; TRANSPORTING
    • B66—HOISTING; LIFTING; HAULING
    • B66B—ELEVATORS; ESCALATORS OR MOVING WALKWAYS
    • B66B19/00—Mining-hoist operation
    • B66B19/002—Mining-hoist operation installing or exchanging guide rails
    • B—PERFORMING OPERATIONS; TRANSPORTING
    • B66—HOISTING; LIFTING; HAULING
    • B66B—ELEVATORS; ESCALATORS OR MOVING WALKWAYS
    • B66B7/00—Other common features of elevators
    • B66B7/02—Guideways; Guides
    • B66B7/023—Mounting means therefor
    • B66B7/024—Lateral supports

Definitions

  • the present invention relates to a method with the aid of which a guide structure can be formed in an elevator shaft of an elevator installation, along which an elevator car can be guided.
  • the invention also relates to an elevator shaft with a guide structure formed according to the invention.
  • an elevator car can typically be displaced vertically within an elevator shaft. During its vertical movement, the elevator car is guided by one or more guide structures in order to prevent the elevator car from moving laterally away from an intended vertical travel path.
  • one or more guide rails are conventionally installed in the elevator shaft.
  • the guide rails can be designed, for example, as steel profiles, in particular as T-shaped, F-shaped, U-shaped or H-shaped profiles in cross section.
  • Such guide rails are typically manufactured in advance and then installed in the elevator shaft.
  • individual guide rail segments are anchored to one of the shaft walls.
  • consoles which are also referred to as brackets, are usually attached to the shaft wall with the aid of anchor bolts, and a respective guide rail segment is fixed to the shaft wall with the aid of the consoles.
  • EP 2754632 A1 describes a method for forming elevator guide rails in which the guide rails are formed with a molding machine in or adjacent to the elevator shaft.
  • JP 2008-207896 describes an elevator in which grooves are designed as guide rails.
  • a method for forming a guide structure in an elevator shaft is proposed.
  • the guide structure is configured here to guide an elevator car during vertical travel in the elevator shaft.
  • the method comprises displacing a tool vertically along the elevator shaft and forming the guide structure by removing material on a shaft wall of the elevator shaft by means of the tool during said vertical displacement of the tool along the elevator shaft.
  • the tool is precisely positioned with regard to its horizontal position within the elevator shaft.
  • an elevator shaft with a guide structure is proposed, the guide structure being formed by means of a method according to an embodiment of the first aspect of the invention.
  • an elevator car in conventional elevators is mostly moved along guide rails which guide the elevator car along its vertical travel path.
  • the guide rails are installed as separate components in the elevator shaft.
  • Each guide rail is typically composed of a plurality of segments which are mounted along the travel path one above the other and in alignment with one another on one of the walls of the elevator shaft.
  • the guide rail segments are usually anchored in the wall of the elevator shaft using consoles.
  • the described conventional way of forming guide structures for guiding the elevator car in an elevator shaft with the aid of guide rails is associated with high financial and labor costs and other disadvantages.
  • the guide rail segments must be produced and then delivered to the location of the elevator system.
  • the guide rail segments must be adapted to the local conditions in the elevator system, in particular with regard to their geometry, especially with regard to their length.
  • suitable brackets or holders usually have to be anchored in the elevator shaft.
  • a large number of bores are conventionally made in the walls of the elevator shaft, which requires considerable effort, particularly in very high elevator shafts and in view of the fact that at this point in time there is no elevator car that can be moved within the elevator shaft.
  • the guide rail segments must then be fixed to the respective elevator shaft walls with the aid of the consoles and aligned with one another in the process. This also requires a considerable amount of work and may have to be carried out at great heights within the elevator shaft.
  • the method can be designed in such a way that a previous manufacture and delivery of guide rails and assembly and adjustment of the guide rails can be dispensed with. Instead, the suggested Process the management structures directly on the spot, ie through processing measures within the elevator shaft.
  • a special tool is successively displaced vertically along the elevator shaft and is always precisely positioned with regard to its horizontal position within the elevator shaft. With the aid of the tool, material is removed from the shaft wall of the elevator shaft during the aforementioned vertical displacement of the tool along the elevator shaft and the guide structure is thereby created.
  • the tool can, for example, from a lowest point at which the guide structure should be provided in the elevator shaft in order to be able to move the elevator car down to the lowest possible position within the elevator shaft, to a top point up to which the guide structure in the elevator shaft should be enough to be relocated.
  • the lowest point can be arranged in the vicinity of a floor of the elevator shaft, whereas the uppermost point can be arranged in the vicinity of a ceiling of the elevator shaft.
  • a travel path along which the tool is displaced during the process can correspond at least approximately to the travel path along which the guide structure to be formed is later to guide the elevator car.
  • the tool is structurally and functionally configured to remove material from the shaft wall of the elevator shaft.
  • the tool should be able to remove material mechanically, for example milling, grinding, planing, cutting, etc.
  • the tool can be configured to remove material directly from the shaft wall.
  • the material can therefore be concrete.
  • the tool can be configured to remove areas from a structure made of a different material such as metal, in particular steel, plastic, wood or the like, which is applied to the shaft wall.
  • structures can be created successively by removing material on the shaft wall, which structures are designed to be suitable as a guide structure for guiding the elevator car.
  • the guide structure can thus be designed in particular as a groove running in the vertical direction in or on the shaft wall.
  • the guide structure can also be formed from several, in particular two, such grooves, which are preferably formed on opposite shaft walls.
  • Such guide structures can for example run along the elevator shaft.
  • such guide structures can be linear and preferably run vertically.
  • the guide structures can have surfaces on which the elevator car can be guided during its vertical travel. These surfaces can preferably run transversely to the horizontal, in particular perpendicular to the horizontal.
  • the guide structure By moving the tool vertically through the elevator shaft and removing material in a precisely positioned horizontal position on the shaft wall of the elevator shaft, the guide structure can thus be created in a relatively simple and / or fast operation.
  • the guide structure is formed here by subtractive removal of material that was already present in the elevator shaft.
  • the guide structure formed by the removal can be formed to run very precisely and / or almost perfectly vertically.
  • the relocation of the tool and the positioning of the tool can be carried out in a completely automated manner or at least partially in an automated manner.
  • the tool can be moved along the elevator shaft with the aid of a motor.
  • a motor can, for example, drive a cable winch or the like, with the aid of which the tool is lifted within the elevator shaft and can be lowered.
  • the motor and thus the displacement of the tool can be controlled with the aid of a controller.
  • the tool can have an actuator system or can be relocated with the aid of an actuator system.
  • the tool can be displaced in directions transverse to the horizontal, in particular in horizontal directions.
  • the actuator system can work together with a sensor system.
  • the sensor system can be configured to detect a current position of the tool within the elevator shaft, that is to say an absolute position of the tool or a position of the tool relative to other structures within the elevator shaft. Signals from the sensors can be sent to the actuators. The actuator system can then position the tool precisely at a desired position in order to be able to remove material from the shaft wall there.
  • the tool can be positioned within the elevator shaft with the aid of a robot or a similar machine that has an actuator system and a sensor system.
  • the robot or the machine, together with the tool, can then be moved vertically within the elevator shaft.
  • the tool and, if applicable, the robot or the machine can, for example, be part of an automated device as proposed by the applicant of the present application for carrying out other installations in an elevator shaft and as described, for example, in WO 2017/016783 A1 .
  • the tool can have a milling head.
  • a groove can then be produced vertically along the shaft wall in that material is removed by means of the milling head.
  • the tool can be designed as a milling cutter.
  • a milling head of such a milling cutter typically has a milling element which can be set in rotation by a motor and which has a structured or rough milling surface. The rotating milling element can then with its milling surface mechanically remove material from the shaft wall.
  • the milling element can be a milling disk, for example.
  • the milling disk can be rotated about an axis of rotation that preferably runs horizontally and preferably runs parallel to the shaft wall.
  • the milling element can be, for example, a rotationally symmetrical body which is rotated about an axis of rotation running transversely to the shaft wall, preferably orthogonally to the shaft wall.
  • the milling head removes material from the shaft wall and thereby forms a preferably linear and vertically extending groove.
  • This groove can serve as a guide structure.
  • the groove can have side surfaces running transversely to the shaft wall, along which, for example, a guide shoe attached to the elevator car can be guided.
  • the side surfaces of the groove can run perpendicular to the surface of the shaft wall or be inclined or inclined to this surface.
  • a cross section of the groove can be constant along the vertical extent of the groove.
  • the side surfaces of the groove can be arranged at a constant distance and in a constant positioning relative to one another along the entire length of the groove.
  • material can be milled from the shaft wall with the aid of the milling head.
  • the milling head can be designed and arranged in such a way that it can be used to remove material directly from the shaft wall.
  • the material to be removed is therefore material that is already present in the elevator shaft, since it is part of its shaft wall, so that no additional material needs to be brought into the elevator shaft to form the guide structure.
  • This material is usually hard concrete, which is usually reinforced with reinforcements.
  • a groove can thus be milled in this concrete, which can then serve as a stable guide structure for the elevator car.
  • the tool or its milling head can be guided in such a way that, if possible, only concrete above the reinforcement is removed so that the reinforcement is not damaged and its reinforcing function is not reduced.
  • the milling head can mill the groove to a maximum depth that is less than a thickness of a concrete cover layer over the reinforcement.
  • the groove can thus be milled to a depth of significantly less than 10 cm, for example a depth in the range from 1 cm to 5 cm.
  • a convex structure protruding from the shaft wall into an interior of the elevator shaft can be formed in advance on the shaft wall.
  • the guide structure can then be formed by removing material from this convex structure with the aid of the tool.
  • a convex protruding structure can be formed on the shaft wall of the elevator shaft, from which material can then be removed with the aid of the tool in order to form the guide structure.
  • the shaft wall arches or bulges, so to speak, towards the interior of the elevator shaft.
  • the convex structure thus forms an area on the shaft wall in which, for example, a cover layer located over a concrete reinforcement is locally quasi thickened.
  • the convex structure can, for example, have a thickness of a few millimeters up to several centimeters, for example a thickness of 0.5 cm to 10 cm, preferably a thickness of 1 cm to 5 cm, beyond adjacent areas of the shaft wall into the interior of the elevator shaft protrude.
  • the convex structure can have a rectangular, part-circular or geometrically different cross-section.
  • a groove can be milled as a guide structure with the aid of the tool.
  • the guide structure can only extend in the area of the convex structure or can extend deeper into a volume of the shaft wall located below the convex structure. Overall, the guide structure can thus be deeper, ie form larger guide surfaces than would be the case if the guide structure were merely milled into a concrete cover layer over a reinforcement in the concrete forming the shaft wall.
  • the convex structure can be designed to be integrated with the shaft wall.
  • the shaft wall and the convex structure formed on it can be in one piece. Both can consist of a common material, in particular concrete. Preferably, a reinforcement provided in the concrete does not extend into the convex structure.
  • the convex structure can already be formed when the shaft wall is being formed, i.e. in particular when the concrete is poured to form the shaft wall. The shaft wall provided with the convex structure can thus be produced in a particularly simple manner.
  • the convex structure can at least partially be attached to the shaft wall as a supplement.
  • the convex structure can be formed completely or at least partially with the aid of a supplementary component that is to be attached to the shaft wall subsequently, that is, after the concrete has been poured.
  • the originally preferably flat shaft wall can thus be locally thickened with the aid of the component forming the convex structure.
  • the convex structure can consist of the same or a different material as the shaft wall.
  • the convex structure can be made of concrete, but also of other materials such as plastic, metal, wood, composite materials, etc.
  • the convex structure can be composed of several component segments. The component segments can be arranged vertically one above the other. The component segments only need to be roughly aligned with one another. The guide structure can then be introduced subsequently into the roughly aligned component segments, in particular by milling out a continuous groove along the multiple component segments.
  • the additional convex structure to be attached can, for example, be glued to the shaft wall.
  • an adhesive mass can be applied in flowable form to a surface of the shaft wall and then solidified.
  • the adhesive can preferably be applied automatically, for example with the aid of a robot to be moved vertically through the elevator shaft.
  • the adhesive can adhere to the shaft wall in a cohesive and / or form-fitting manner.
  • the adhesive mass can be applied with a considerable thickness, so that after curing it can act as the convex structure itself.
  • an additional component or component segment forming the actual convex structure can be pressed onto the adhesive, so that this component or component segment is glued to the shaft wall via the adhesive.
  • the convex structure can be screwed onto the shaft wall.
  • a separate component forming the convex structure can be fixed to the shaft wall with the aid of screws. It can be preferred here to fix the component with a large number of small screws instead of a few large screws.
  • the small screws can, for example, only be screwed into the concrete cover layer of the shaft wall, so that there is no risk of damage to the reinforcement underneath or problems when screwing in the screws can be avoided.
  • the component can preferably be screwed together in an automated manner.
  • a robot specially designed for this purpose can be moved vertically through the elevator shaft and, in the process, screw the component or segments thereof forming the convex structure onto the elevator shaft wall.
  • a plastic layer can be subsequently applied to a running surface formed on the guide structure when the guide structure is formed.
  • a running surface can be created on the guide structure, which was formed by the removal of material on or in the shaft wall. Later, for example, a guide shoe of the elevator car can roll or run along this running surface slide. This running surface can be further processed in order to give it certain properties.
  • the running surface can be subsequently provided with a plastic layer.
  • the plastic layer can smooth the running surface. In this way, for example, a rolling resistance or sliding resistance can be reduced when the guide shoe is moved along the running surface.
  • the plastic layer can seal the running surface and / or protect it against environmental influences.
  • the plastic layer can be applied by machine. In particular, the plastic layer can be applied fully automatically or partially automatically.
  • the tool can position its horizontal position within the elevator shaft relative to a vertical reference line held in the elevator shaft.
  • the horizontal position of the tool within the elevator shaft can be determined by referring to a reference line.
  • the reference line can extend, for example, where the guide structure is to be created on the elevator shaft wall.
  • the reference line can extend in a predefined spatial relationship to the position at which the guiding structure is to be produced.
  • the tool or a positioning device that interacts with it can, for example, have a sensor system or a detector that can detect the reference line. After the reference line has been recognized, the tool can then be positioned precisely relative to this reference line.
  • the reference line can be made material, i.e. implemented by a material structure provided within the elevator shaft.
  • the reference line can be implemented with the aid of a plumb line held in reserve in the elevator shaft.
  • a perpendicular can, for example, have a weighted cord, which thus extends perpendicularly within the elevator shaft. The perpendicular can thus serve as a vertical reference line so that the position of the tool can be determined relative to this perpendicular.
  • the reference line can also be made material-free.
  • the reference line can be designed to be purely visually perceptible.
  • the Reference line are generated with the aid of a laser beam, which is generated in a straight line and preferably running vertically in the elevator shaft. The laser beam can be detected and the position of the tool can be determined relative to this laser beam.
  • An elevator shaft according to the invention in which the guide structure was formed with the aid of an embodiment of the method presented here, can offer various advantages for the elevator system formed therewith compared to conventional elevator shafts.
  • the advantages of the method proposed herein which have already been set out further above, also lead to similar advantages for the elevator shaft.
  • the advantage that the guide structure can be formed particularly quickly, precisely and / or inexpensively with the proposed method can lead to corresponding advantages for the elevator shaft.
  • the possible positionally accurate formation of the guide structure can result in the guide structure in the finished elevator shaft being more straight and / or almost exactly vertically aligned compared to conventional guide rails made up of several segments. This can improve ride comfort for the elevator car guided on the guide structure, among other things.
  • a space requirement for the guide rail within the elevator shaft can also be omitted or reduced, in particular if the guide structure is designed as a groove on or in one of the shaft walls. As a result, the cross section of the elevator shaft that is available for the elevator car can be enlarged.
  • the guide structure is generated by milling a groove
  • other removal methods using the position-guided tool are also conceivable.
  • the tool can be used to remove material from a previously only roughly predefined structure, in particular a structure protruding convexly from the shaft wall, in order to form flat, vertical surfaces on this structure, which can then represent, for example, foot surfaces of the desired guide structure.
  • FIG. 1 shows an elevator shaft in which a guide structure is formed by means of a method according to an embodiment of the present invention.
  • Fig. 2 shows a sectional view through a guide structure formed according to the invention.
  • Fig. 3 shows a sectional view through an alternative guide structure formed according to the invention.
  • the elevator shaft 1 shows an elevator shaft 1.
  • the elevator shaft 1 is formed by an essentially cuboid volume which is formed in a building and is delimited at the side by shaft walls 3.
  • the shaft walls 3 here extend vertically, that is to say in a z-direction.
  • the elevator shaft 1 is delimited at the top and bottom by a ceiling and a floor, respectively, which extend horizontally, i.e. in a plane spanned by an x-direction and a y-direction.
  • an elevator car (not shown) is to be moved vertically at a later point in time.
  • the elevator car is intended to be guided on one or more guide structures 5 within the elevator shaft 1.
  • a tool 7 can be placed in the Elevator shaft 1 are included. In this case, precautions are taken in order to be able to move the tool 7 vertically within the elevator shaft 1 and, at the same time, to be able to position it precisely with regard to its horizontal position within the elevator shaft 1.
  • the tool 7 is configured here to form the desired guide structure 5 in the form of a vertically running groove by removing material during the aforementioned vertical displacement within or along the elevator shaft on one of the shaft walls 3.
  • a displacement device 9 can be provided which is configured to raise or lower the tool 7 vertically in a controlled manner along the elevator shaft 1.
  • a displacement device can be, for example, a cable winch 11 which can wind up and unwind a cable 13 in order to move a frame 15 or car attached to one end of the cable 13 within the elevator shaft 1.
  • the tool 7 can be held on or in the frame 15 or car.
  • a lateral position of the tool 7 or of the frame 15 holding it can be influenced with the aid of a positioning device 17.
  • the positioning device 17 can, for example, have an actuator system with actuators 19, with the aid of which plungers 21 can be displaced in the horizontal direction.
  • a plurality of actuators 19 and rams 21 can be provided which can be displaced in different directions in order to be able to displace the overall lateral position of the tool 7 or of the frame 15 in the x-direction and / or the y-direction.
  • the actuators 19 and rams 21 can possibly also be designed and operated in such a way that with their help the tool 7 or the frame 15 can be supported on opposite side walls 3 and thus expanded and fixed within the elevator shaft 1.
  • a detection device 23 is also provided.
  • the current lateral position of the tool 7 or of the frame 15 within the elevator shaft 1 can be detected with the aid of the detection device 23.
  • the detection device 23 can, for example, detect a vertical reference line 25 held in the elevator shaft 1, the position and / or orientation or course of which within the Elevator shaft 1 are known.
  • the reference line 25 can be formed, for example, by a perpendicular 27 installed in the elevator shaft 1. Detection signals from the detection device 23, which indicate where the tool 7 is currently located relative to the reference line 25, can be transmitted to the positioning device 17 so that it can then laterally shift the frame 15 with the tool 7 attached to it into a desired target position .
  • Both the displacement of the tool 7 with the aid of the displacement device 9 and the lateral positioning of the tool 7 with the aid of the positioning device 17 can be carried out in a fully automated or at least partially automated manner.
  • partial controls of the displacement device 9, the positioning device 17 and possibly the tool 7 itself can communicate with one another or be coordinated by a central control.
  • the tool 7 can be designed as a milling tool, for example.
  • the tool 7 can have a milling head 29 on which a milling disk 31 is provided.
  • the milling disk 31 can, for example, be circular and be driven to rotate.
  • the tool 7 corresponds or is similar in this case to a slot milling machine or a wall groove milling machine.
  • the milling disk 31 can remove the material Mill the shaft wall 3 or from a structure provided on the shaft wall 3. In this way, a preferably linearly extending groove 33 can be produced on the shaft wall 3.
  • a mechatronic installation component for example in the form of an industrial robot, which can receive and guide the tool, can also be arranged on the frame.
  • the frame can be positioned and fixed at different heights in the elevator shaft Tool is displaced along a manhole wall that the guide structure is formed by removing material from the manhole wall.
  • FIG. 2 a horizontally sectioned view through the tool 7 and the groove 33 produced in the shaft wall 3 with its help is shown.
  • the milling disk 31 removes material directly from the shaft wall 3.
  • the shaft wall 3 is typically formed with concrete, into which reinforcements 35 are embedded.
  • the reinforcements 35 are typically covered by a concrete cover layer 37 a few centimeters thick.
  • the tool 7 can preferably be positioned in such a way that the groove 33 on the one hand extends sufficiently deep into the shaft wall 3, on the other hand the reinforcement 35 located under the concrete cover layer 37 is not damaged.
  • Fig. 3 an alternative embodiment for forming the groove 33 on the shaft wall 3 is shown.
  • the tool 7 does not mill material directly out of the shaft wall 3.
  • a convex structure 39 protruding into the interior of the elevator shaft 1 is provided on the shaft wall 3.
  • the convex structure 39 can, for example, have an approximately rectangular cross section.
  • the convex structure 39 can, for example, protrude a few centimeters over a planar surface 41 of the shaft wall 3.
  • material can then be removed from this convex structure 39.
  • a vertically running groove 33 can be produced in the convex structure 39.
  • the groove 33 can in this case run more precisely, i.e., for example, straighter and / or more precisely in accordance with the vertical, than is the case for the convex structure 39.
  • the convex structure 39 can be formed directly with the shaft wall 3 when it is formed.
  • the convex structure 39 can also be poured.
  • the convex structure 39 can be designed to be integrated with the shaft wall 3.
  • the convex structure 39 can only have been added to the shaft wall 3 after it has been completed.
  • the convex structure 39 can, for example, with the aid of a plurality of rectangular cross-sections Component segments 42 may be formed.
  • the component segments 42 can be fixed on the shaft wall 3.
  • the component segments 42 can be screwed to the shaft wall 3 with the aid of a large number of relatively small screws 46.
  • the component segments 42 can be glued to the shaft wall 3.
  • a plurality of such component segments 42 can be fixed vertically one above the other, for example along essentially the entire length of the elevator shaft 1 on the shaft wall 3, in order to form the convex structure 39 extending vertically along the shaft wall 3.
  • the groove 33 formed in the shaft wall 3 or in the convex structure 39 can later serve as a guide structure 5 for guiding the elevator car.
  • a roll of a guide shoe provided on the elevator car can roll in the groove 33 and be guided by the mutually opposite lateral flanks 43 of the groove 33.
  • the running surface 45 can be protected with the aid of a plastic layer 47 (see FIG. 2).
  • the running surface 45 can be formed, for example, by a base and / or the flanks 43 of the groove 33.
  • the plastic layer 47 can also have damping properties.
  • the plastic layer can be a few 100 ⁇ m up to a few millimeters thick.
  • the plastic layer can be applied, for example, directly after the groove 33 has been milled.
  • a suitable application device can be provided on the tool 7.
  • the plastic layer can be applied with a separate device and / or at a different point in time.

Landscapes

  • Lift-Guide Devices, And Elevator Ropes And Cables (AREA)
  • Cage And Drive Apparatuses For Elevators (AREA)

Abstract

L'invention concerne un procédé de formation d'une structure de guidage (5) dans une gaine d'ascenseur (1). La structure de guidage (5) est conçue pour guider une cabine d'ascenseur pendant qu'elle se déplace verticalement dans la gaine d'ascenseur (1). Le procédé comprend les étapes suivantes : le déplacement d'un outil (7), par exemple un outil de fraisage, verticalement le long de la gaine d'ascenseur (1), l'outil (7) étant positionné avec précision en termes de sa position horizontale à l'intérieur de la gaine d'ascenseur (1), et la formation de la structure de guidage (5) par enlèvement de matière d'une paroi de gaine (3) de la gaine d'ascenseur (1) au moyen de l'outil (7).
EP21707750.2A 2020-03-12 2021-03-02 Procédé de formation d'une structure de guidage pour guider une cabine d'ascenseur dans une gaine d'ascenseur Pending EP4118023A1 (fr)

Applications Claiming Priority (2)

Application Number Priority Date Filing Date Title
EP20162762 2020-03-12
PCT/EP2021/055106 WO2021180510A1 (fr) 2020-03-12 2021-03-02 Procédé de formation d'une structure de guidage pour guider une cabine d'ascenseur dans une gaine d'ascenseur

Publications (1)

Publication Number Publication Date
EP4118023A1 true EP4118023A1 (fr) 2023-01-18

Family

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Family Applications (1)

Application Number Title Priority Date Filing Date
EP21707750.2A Pending EP4118023A1 (fr) 2020-03-12 2021-03-02 Procédé de formation d'une structure de guidage pour guider une cabine d'ascenseur dans une gaine d'ascenseur

Country Status (6)

Country Link
EP (1) EP4118023A1 (fr)
CN (1) CN115279681B (fr)
AU (1) AU2021236184B2 (fr)
BR (1) BR112022017766A2 (fr)
CA (1) CA3175011A1 (fr)
WO (1) WO2021180510A1 (fr)

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US11667497B2 (en) * 2020-11-04 2023-06-06 Otis Elevator Company Wall climbing elevator

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EP2754632A1 (fr) 2013-01-10 2014-07-16 Kone Corporation Rails de guidage d'ascenseur
WO2016078726A1 (fr) * 2014-11-21 2016-05-26 Inventio Ag Système de guidage et de support d'une cabine d'ascenseur
EP3085660B1 (fr) * 2015-04-23 2020-10-28 Kone Corporation Procédé et agencement permettant d'installer des rails de guidage d'un ascenseur
ES2769749T3 (es) * 2015-07-24 2020-06-29 Inventio Ag Dispositivo de montaje automático para la realización de operaciones de instalación en una caja de ascensor de una instalación de ascensor
EP3513010B1 (fr) * 2016-09-13 2024-07-10 Inventio Ag Systeme de fixation murale destine pour fixer un composant d'ascenseur
CA3041820A1 (fr) 2016-11-24 2018-05-31 Inventio Ag Procede de montage et dispositif d'alignement d'un rail de guidage d'un systeme d'ascenseur
CN109733974B (zh) * 2019-03-21 2024-01-30 多普勒电梯股份有限公司 一种可降低楼顶施工量的电梯

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WO2021180510A1 (fr) 2021-09-16
CA3175011A1 (fr) 2021-09-16
CN115279681B (zh) 2024-08-16
AU2021236184B2 (en) 2024-07-18
AU2021236184A1 (en) 2022-10-06
US20230103326A1 (en) 2023-04-06
CN115279681A (zh) 2022-11-01
BR112022017766A2 (pt) 2022-10-18

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