JP3227044U - Stabilizer - Google Patents

Abstract

An elevator system for stabilizing an elevator and an elevator platform is provided.
SOLUTION: A building having an upper fixing part close to the upper part of the building and a lower fixing part close to the bottom of the building, a guide wire 3 having a constant length stretched between the upper fixing part and the lower fixing part, and the upper fixing. A fixed length guide wire between the upper and lower fixed parts and a wire fix 4 removably connected between the fixed part of the building, the wire fix having a groove through which the guide wire passes, The wire fix can be detached from the guide wire without the need for strain relief of the guide wire. The wire fix is configured such that a groove opens around the guide wire to allow the wire fix to connect or disconnect from the guide wire.
[Selection diagram] Fig. 3B

Description

Background Many techniques for stabilizing elevators and elevator platforms are currently being implemented. For example, in the wind tower example, companies such as Power Climber Wind, Avanti, Tractel, Greifzug and others are developing the technology. Such techniques typically guide the use of at least two vertically arranged, tensioned guidewires in vertically moving the elevator over the length of the tower. In this case, guidewires are typically placed on either side of the elevator and are coupled to the elevator in such a way that they do not limit vertical movement, but prevent or limit lateral and rotational movement. Wind towers are typically 200 to 400 feet in height and may include an intermediate landing with the towers arranged along their length. An opening is generally provided in such a landing. Through this opening, an elevator can pass and guide wires are located in the wire fix of each opening at the landing and at the top and bottom of the tower to guide the elevator through the landing opening without collision. .. The tension in each guide wire may be in the range of 500 to 1000 pounds pounds (lbs force) to provide a strong horizontal stabilizing force to the elevator and limit unwanted movement between wire fix positions.

In the disclosure below, the term "guidewire" includes a wire used to restrict the path of an elevator. The term "guide component" includes a device attached to an elevator for connecting to a guide wire. The term "wire fix" includes a orienting device attached to a guide wire.

Overview According to one illustrated embodiment of the present invention, a system for stabilizing the vertical movement of an object mounted on a building, such as a tower or a building, includes at least one static guide and a static guide in close proximity to the static guide. At least one first housing attached to the mounted object. In addition, at least one further receiving part connected to the static guide can pass through the first receiving part. Further, the further housing is arranged to maintain the static guide in a fixed relationship to the mounting structure, and the further housing is arranged for in-situ mounting. There is.

Thus, the illustrated embodiments described herein solve the prior art limitations regarding the design and use of additional receptacles in the form of wirefixes. For example, typically an object for vertical motion, such as a fixed static guide that functions in concert to limit lateral motion, such as an elevator car that moves vertically along a guide wire, , With an attached first housing, for example a guide part. If the guide wire is connected to the building using a wire fix, e.g. in a landing, in close proximity to a guide wire of a certain length, the guide parts in the elevator will not interfere with or obstruct while maintaining the stability of the elevator. It is configured to change the wire fix without interruption.

The prior art discloses various implementations of wire fix and guide components. Due to certain limitations of existing implementations, it is difficult to replace the wire fix with the guidewire threaded through it. In the illustrated embodiment of the present invention, the guide wire can be installed or removed as-is without loosening tension to reduce service time and cost, and to eliminate interference with guide wire tensioning. Wirefixes are used that can maintain system reliability.

For example, the wire fix is detachably connected between a fixed length guide wire stretched between an upper fixing part and a lower fixing part of the tower. The wire fix has a groove through which the guide wire passes, and the wire fix can be removed from the guide wire without the need for de-tensioning the guide wire.

The wire fix may be configured with a groove around the tensioned guide wire to allow the wire fix to be coupled to or removed from the guide wire. For example, the wire fix can include two halves that can be separated to open the groove for connecting or disconnecting the wire fix to the guide wire. In another example, the groove can be formed in one piece with an opening formed in the groove to receive the tensioning guidewire.

The foregoing summary and the following detailed description of the preferred embodiments will be better understood when read in conjunction with the accompanying drawings. For purposes of illustration, exemplary embodiments are shown in the drawings. However, the present disclosure is not limited to the particular methods and implementations disclosed.
It is a figure which shows an example of a wind tower elevator car. 1 is a schematic view of an elevator including guide parts. It is a figure which shows attachment of a guide wire and a wire fix. It is a figure which shows a wire fix and a guide component. It is a figure which shows a wire fix and a guide component. It is a figure which shows a wire fix and a guide component. FIG. 5 illustrates a wire fix and guide component according to the illustrated embodiment of the present invention. FIG. 5 illustrates a wire fix and guide component according to the illustrated embodiment of the present invention. FIG. 5 illustrates a wire fix and guide component according to the illustrated embodiment of the present invention. FIG. 5 illustrates a wire fix and guide component according to the illustrated embodiment of the present invention. 3 is a schematic view of a wire fix according to the illustrated embodiment of the present invention. 3 is a schematic view of a wire fix according to the illustrated embodiment of the present invention. FIG. 6 is a diagram showing another embodiment of the wire fix 30 according to the aspect of the present invention. 3 is a schematic view of a wire fix according to the illustrated embodiment of the present invention. 3 is a schematic view of a wire fix according to the illustrated embodiment of the present invention. It is a figure which shows the example of the mounting state of the stabilization system (elevator system) provided with the guide wire of another embodiment, a wire fix, and a guide component (guide shoe). It is a figure which shows the example of the mounting state of the stabilization system (elevator system) provided with the guide wire of another embodiment, a wire fix, and a guide component (guide shoe). It is a figure which shows the example of the mounting state of a wire fix. It is a perspective view of the half-plate which comprises a wire fix. It is a 6-plane figure of the half-plate which comprises a wire fix. It is a perspective view of a guide shoe. It is a top view of a guide shoe. It is a bottom view of a guide shoe. It is a side view of a guide shoe. It is a front view of a guide shoe.

DETAILED DESCRIPTION OF ILLUSTRATIVE EMBODIMENTS Certain specific embodiments are set forth in the following description and drawings to provide a thorough understanding of the various embodiments of the invention. Certain well-known details, often associated with elevators, are not described in the following disclosure to avoid unnecessarily obscuring the various embodiments of the present disclosure. Furthermore, those skilled in the art will appreciate that other embodiments of the present disclosure may be practiced regardless of one or more of the details set forth below. Finally, various methods are described in the following disclosure with reference to steps and sequences, the description itself being for providing a clear implementation of the embodiments of the present disclosure. The order of steps should not be construed as necessary to practice the present disclosure.

FIG. 1A illustrates the installation of a typical elevator 100 in a building, eg, a wind tower. The elevator 100 typically has a tow hoisting mechanism 105 connected to the elevator car 1. The hoisting mechanism 105 is connected to the sheave 103 via a reduction gear box (not shown) and has an electric motor 120 that drives the sheave 103 to rotate. Here, a tow hoist is used to illustrate the operation of the elevator, but a drum hoist can also be used.

A power supply (not shown) is selectively coupled to the electric motor. The selective application of power to the electric motor 120 causes the sheave 103 to rotate in a clockwise or counterclockwise direction. The elevator car 1 is connected to the fixed suspension wire 104 by winding around the sheave 103. The suspension wire 104 is fixed to the fixed structural member 106. Therefore, when the electric motor 120 rotates the sheave 103, the rotation of the sheave 103 causes the elevator car 1 to effectively move the suspension wire 104 up and down according to the rotation direction.

FIG. 1B further shows a part of the elevator car 1. The guide component 2 is shown attached to the side of the elevator car 1. This style of guide piece is commonly used. Guide pieces 2 are mounted on the sides of the elevator car 1 to provide stability to the elevator car 1 as it moves vertically through a building such as a tower or a building. A fixed number, usually two guide parts 2 are mounted on both sides of the elevator car 1. The guide parts 2 are typically arranged towards the top and bottom of the elevator car 1 in order to provide sufficient stability. The static tension guide wire 3 is arranged so as to pass through the guide part 2 and functions together with the guide part 2 to limit the lateral movement of the elevator car 1.

With reference to FIG. 2, the wire fix 4 is attached by a bracket 5. Further, the bracket 5 is attached to a structure, for example a landing 6 of a wind tower. The wire fix 4 functions to hold the guide wire 3 in a fixed position on the landing 6 in order to provide a defined path for the elevator car 1 during vertical movement and movement through the landing 6. This style of wire fix is commonly used.

With reference to FIG. 3A, the slot 7 in the guide part 2 attached to the elevator car 1 is such that the tongs 8 (of FIG. 3B) of the wire fix 4 are connected to the wire fix 4 while the elevator car 1 is moving vertically. And a route through the landing 6. Specifically, the slot 7 in the guide component 2 has an opening smaller than the diameter of the guide wire 3 to restrain the guide wire 3 in the guide component 2.

With reference to FIG. 4, an alternative guide piece 9 is described. In this case, the wire fix 4 is moving between the guide parts 9. This style of guide piece is commonly used.

A feature of the wire fix 4 is that the guide wire 3 needs to be threaded through the wire fix 4 during installation, and if the wire fix 4 needs to be replaced, then the guide wire 3 needs to be strain-relieved, It is necessary to thread the wire fix 4 through the guide wire 3 before re-tensioning the guide wire 3. This is inconvenient, switching services are relatively complex and time consuming.

It is noted that the wire fix and guide components described with reference to Figures 1, 2, 3 and 4 are known and are in commercial use.

(First embodiment)
The embodiments described with reference to FIGS. 5-9 illustrate embodiments of the wire fix in which the wire fix can be attached to the guide wire 3 without strain relief of the guide wire 3. In this regard, in each embodiment, the wire fix may be installed or replaced as is. The benefits of such a wire fix are many. One particular advantage is that it allows wire fix repairs to be performed without significantly interfering with the elevator installation.

In particular, each wire fix shares a component with which when connected to a length of guide wire 3, a groove 52 (see FIG. 9) is formed in a portion or end of the wire fix. Further, the wire fix has an attachment point 53 (see FIG. 9) at the other end of the wire fix. This allows the wire fix to be attached to a bracket or another structure that connects the wire fix to the securing element of the tower. The groove 52 allows the mechanism to be opened over a length of guide wire stretched between a structure near the top of the upper fixture or tower and a structure near the bottom of the tower or bottom of the tower. Have more. In this way, the wire fix can be detached from or attached to the guidewire without the need for strain relief of the guidewire.

5A, 5B and 5C show a wire fix 10 according to an embodiment of the present invention. In this embodiment, the wire fix 10 is configured as a coarse pitch spring that can be threaded over the guide wire 3 as it is. The wire fix 10 can be attached to the landing 6 with the associated clamp plate 11 and suitable brackets (not shown). The pitch of the spring bend 50 may be selected to be operative to fit the spring bend 50 onto the guidewire 3 or, alternatively, may be sufficiently extended to fit.

Referring to FIG. 6, an alternative embodiment of a wire fix 13 according to aspects of the present invention configured as a folded structure formed as shown to provide a housing for a guide wire 3. Indicates. Bolt holes 60 are provided for attachment to the landing 6. The wire fix 13 can be attached to the guide wire 3 as it is by fully opening the two leaves 15 and pushing the guide wire 3 into the protrusion 14 before closing the leaves 15. The leaf 15 can then be attached to the appropriate bracket at the landing 6.

FIG. 7 shows another embodiment of the wire fix 27. In this embodiment, the wire fix 27 is configured as two half plates 20, 21 formed as shown to provide a housing for the guide wire 3. The bolt holes 60 provide attachment to the landing 6, for example, but not necessarily, by using the bracket 26. In order to improve the stability of the positional relationship between the half plates 20 and 21 when a load is applied, the half plates 20 and 21 mesh with each other in a slot 24 for securing the accommodation portion of the guide wire 3 and Locking, locking tabs 23 can be included. To further reduce costs and simplify assembly, each half plate 20, 21 can be manufactured as the same piece, optionally with the reinforcing ribs 25. A flange 22 may be included to improve the positional relationship between the half plates 20, 21.

FIG. 8 illustrates another embodiment of the wire fix 30 according to aspects of the present invention. The wire fix 30 is constructed as a single piece as shown to provide a housing for the guide wire 3. An opening 31 is placed around the guide wire 3 for mounting the wire fix 30 on the guide wire 3, and the wire fix 30 is characterized by the fact that the guide wire 3 is coaxial with the partial tubular structures 32, 33. Rotated to be housed. The partial tubing 32, 33 can be formed such that the opening represented as the unfilled portion of the partial tubing 32, 33 is less than the diameter of the guide wire. Thus, when the wire fix 30 is rotated and placed on the guide wire 3, it bends to receive the guide wire 3 and thus provides additional holding force. Tapers 34, 35 may be included to facilitate entry of the wire fix 30 into the guide component 2 as the elevator car 1 moves vertically through the wire fix 30.

9A and 9B show another embodiment of a wire fix 40 according to aspects of the present invention. In this embodiment, the wire fix 40 is configured as two half pieces 41. Preferably, but not necessarily, each half piece 41 is substantially identical and may be made of a molding material, for example glass filled nylon.

The fingers 42 are tapered to provide a housing for the guidewire 3. This allows the fingers 42, when assembled to the wire fix 40, to engage the same complementary space 42a, thereby providing a locking function to prevent movement and separation.

In this embodiment, in order to mount the wire fix 40 on the guide wire 3, the two half pieces 41 are arranged such that one set of the tips of the fingers 42 of one half piece 41 is the root 43 of the other half piece 41. Can be aligned to align. The half-piece 41 can then be opened in a "V" shape so that it can be positioned coaxially within the formed cylindrical section 44 of the guide wire 3. Further, the relative positioning of fingers 42 is such that when the "V" shape is closed, the structure shown as 40 is achieved when fingers 45 are aligned.

The half-piece includes holes or slots 46 for clamping to the support structure, and may optionally include pins 47 and holes 48. This ensures maintenance of alignment and closure when assembled. The wire fix 40 is rotated 180 degrees about the horizontal axis in the plane of the drawing of the second half piece from the orientation of the half piece 41 and integrates the hole 48 with the pin 47 of the second half piece. Is formed by.

Additional structure, such as flange 49, can be added for reinforcement and shaping of the adjacent surface of fingers 42 to provide a snap fit.

The wire fix embodiments described above can be used as part of an original construction of an elevator or as an add-on to existing structures. In either case, the service person will attach the wire fix to the tower structure, for example by attachment to a platform or other fixed structure. First, the groove of the wire fix is opened around the guide wire. In the case of a one-piece wire fix, for example the embodiment of Figures 5 and 8, the guidewire is placed in the opening in the groove and the groove is twisted around the guidewire. For example, if the wire fix has two parts, as illustrated in FIGS. 7 and 9 (and FIG. 6 if it has two leaves), the guide wire is placed in the groove and the two parts together. Close the opening around the guide wire. The attachment point is then secured to the tower structure or a structure that is then secured to the tower structure, eg, the platform.

(Second embodiment)
10 and 11 are diagrams showing an example of a mounting state of a stabilizing system (elevator system) including a guide wire 3, a wire fix 100, and a guide component (guide shoe) 200 according to another embodiment. As shown in FIGS. 10 and 11, an elevator swing stage (elevator lift) 310 is attached to the outer surface of a building 300 such as a building using a stabilization system. The swing stage 310 moves up and down along the outer surface of the stabilization system building 300.

The guide wire 3 is stretched between the roof 301 and the bottom 302 of the building 300. As shown in FIG. 11, the guide wire 3 is fixed to the roof 301 by the first position fixing member 305 and fixed to the bottom 302 by the second position fixing member 306. The guide wire 3 has its lateral movement restricted by the wire fixes 100 provided at a plurality of positions in the building 300.

In the present embodiment, the “outer surface” includes inner wall surfaces other than the outer wall of the building, the “rooftop” includes a predetermined portion of the upper area other than the rooftop of the building, and the “bottom” includes the ground around the building. Including a predetermined portion of the lower region of the. That is, the guide wire 3 can be arranged vertically along the wall surface of the building.

As shown in FIGS. 10 and 11, two or more guide wires 3 are installed in the building 300 by the wire fix 100, and the swing stage 310 can be fixed by the corresponding guide shoes 200. Two guide shoes 200 provided side by side move along the two axes of the two guide wires 3 and the corresponding wire fix 100. In this case, for example, it is desirable that the distance between the wire fixes 100 for installing the two guide wires 3 in the building and the distance between the two guide shoes 200 fixed to the swing stage 310 are the same. That is, each of the guide shoes 200 is preferably adjusted so as to pass through the two wire fixes 100 at the same time.

FIG. 12 is a diagram showing an example of a mounted state of the wire fix 100. The wire fix 100 is configured as two half plates 101, 102 formed as shown to provide a housing for the guide wire 3. By being configured as the two half plates 101 and 102, the wire fix can be replaced without loosening the tension of the guide wire 3.

To further reduce cost and simplify assembly, each half plate 101, 102 can be manufactured as the same piece. In this case, the wire fix 100 further includes, for example, a bracket 103 fixed to the building 300. The bolt holes 60 are used for fixing the bracket 103 fixed to the building 300 to the two half plates 101 and 102, and provide attachment to the building 300. The bracket 103 may be integrally formed with one of the half plates 101 and 102.

13 and 14 are a perspective view and a six-sided view of the half plates 101 and 102 that form the wire fix 100, respectively. As shown in FIGS. 13 and 14, the half plates 101 and 102 that form the wire fix 100 can be manufactured as the same piece. Each half plate 101, 102 has a joint 104 for securing the accommodation portion for the guide wire 3 by engaging with each other. With this design, it is possible to limit the lateral movement of the guide wire 3 by fixing the two half plates 101 and 102 with bolts or the like. As a result, the guide wire 3 does not swing laterally.

15 to 19 are diagrams showing a configuration example of a guide shoe 200 used as a guide component. 15 is a perspective view of the guide shoe 200, FIG. 16 is a top view of the guide shoe 200, FIG. 17 is a bottom view of the guide shoe 200, FIG. 18 is a side view of the guide shoe 200, and FIG. FIG. 4 is a front view of the guide shoe 200. The guide shoe 200 of FIGS. 15 to 19 engages with the guide wire 3 and the wire fix 100 on the upper surface side, and is attached to the swing stage 310 on the lower surface side.

The guide shoe 200 shown in FIGS. 15 to 19 is configured by connecting the lower surfaces of the upper members 220 and 230 of the upper portion 210 and the upper surface of the lower member 260 of the lower portion 250 by elastic fixing members 240. The guide shoe 200 is fixed to the swing stage 310 by a fixing means such as a bolt 261 on the lower surface of the lower member 260. The upper portion 210 of the guide shoe 200 is configured by two symmetrically-shaped upper members 220 and 230 fixed by fixing means such as a nut 211 and a bolt 212.

The upper members 220, 230 form a through opening 213 for passage of the guide wire 3 and the wire fix 100 in the assembled state. Both ends of the upper members 220 and 230 in the through opening 213 are formed in flare shapes that widen toward the tip. When viewed from the front, the through opening 213 is formed in a C shape with a part thereof opened.

The guide shoe 200 can be attached to the guide wire 3 and the wire fix 100 with the upper members 220 and 230 disassembled. For example, the fixing (212, 211, 240) of one of the upper members 220, 230 can be removed and attached to the guide wire 3 and the wire fix 100. The engagement with the guide wire 3 and the wire fix 100 can be released without completely removing the fixation with the swing stage 310.

The elastic fixing member 240 that connects the upper members 220 and 230 and the lower member 260 of the guide shoe 200 includes a spring 242 that is biased by tightening a bolt 241, and the through openings 213 at both ends of the upper members 220 and 230 are flared. Has become. This configuration allows the wire fix 100, which may not be perfectly aligned in its axial direction, to pass smoothly through the through opening 213. As a result, when the swing stage 310 moves up or down due to displacement of the wire fix 100 and the guide shoe 200 and insufficient tension of the guide wire 3, the guide wire 3 tilts and the wire fix 100 and the guide shoe 200 are damaged. Can be prevented.

The elastic fixing member 240 that couples the upper members 220 and 230 and the lower member 260 of the guide shoe 200 includes a spring 242 that is biased by tightening a bolt 241. When viewed, it is formed in a C shape with a part open. With this configuration, even if the wire shoe 200 on the swing stage 310 and the corresponding wire fix 100 are not perfectly aligned so that their axes are aligned with each other, or the mounting intervals between them are not aligned, There is some flexibility in multiple axes to facilitate passage through the wire fix 100. The spring 242, when functional, can compensate for slight mechanical tilt to allow imperfect spacing and alignment.

The material of the guide shoe 200 can be glass-filled nylon that resists long-term wear to the guide wire 3 and wire fix 100.

The wire fix embodiments described above can be used as part of an original construction of an elevator or as an add-on to existing structures. In either case, the service person will attach the wire fix to the building, for example by attachment to the building or other fixed structure. In the case of a two-piece wire fix, eg, the embodiment of FIGS. 12-14, first the groove of the wire fix (the space formed by the two-piece fitting 104) is opened around the guidewire. .. The guide wire is placed in the groove and the two parts together close the opening around the guide wire. The attachment points are then fixed to the building or a structure that is then fixed to the building, for example a platform.

The guide shoe embodiments described above can be used as part of an original construction of an elevator or as an add-on to existing construction. In either case, the service person would attach the guide shoe to the elevator lift, for example, by attachment via a swing stage or other structure. In the case of a guide shoe with multiple parts, for example the embodiment of FIGS. 15 to 19, first disassembling one of the two parts forming the opening (through opening) of the guide shoe. Open around the guidewire. The guide wire is placed in the opening, and then the disassembled part is removed from one of the guide shoes fixed to the elevator platform or then to a structure secured to the elevator platform, such as a swing stage or other moving structure. It is fixed to the part.

The use of the inventive wire fix described herein can also be utilized as an add-on to existing elevators. For example, if additional lateral support is required, the wire fix can be applied without compromising the existing tension on the guidewire.

The foregoing description has described various embodiments of apparatus and methods, using the drawings and illustrations. Although this disclosure has been described with reference to preferred embodiments in various figures, other similar embodiments may be used or to perform the same function of this disclosure without departing from this disclosure. It is to be understood that modifications and additions can be made to the described embodiments. Furthermore, it should be emphasized that the aspects of the invention described herein have a variety of uses. For example, aspects of the invention relate to elevators used for vertical transportation, but equally apply to other mechanisms used in elevators and sloping vehicles, such as cable cars located on hillsides.

Claims (23)

A building having an upper fixing part near the upper part of the building and a lower fixing part near the bottom part of the building,
A guide wire having a constant length stretched between the upper fixing portion and the lower fixing portion,
A wire fix detachably connected between the fixed wire of the fixed length and the fixed part of the building between the upper fixed part and the lower fixed part,
The wire fix has a groove through which the guide wire passes, and the wire fix can be detached from the guide wire without having to relieve the tension of the guide wire,
Elevator system. The elevator according to claim 1, wherein the wire fix is configured such that the groove opens around the guide wire to allow the wire fix to be coupled to or removed from the guide wire. 3. The elevator of claim 2, wherein the wire fix includes two halves that can be separated to open the groove for connecting or disconnecting the wire fix to the guide wire. 3. The elevator according to claim 2, wherein the groove is formed in one piece with an opening formed in the groove for receiving a tensioning guidewire. The elevator according to claim 4, wherein the one part is formed of a spring having a bend, the bend having a pitch that allows the guidewire to be received between bends. The elevator according to claim 4, wherein the groove is formed by two opposing partially open grooves. 3. The elevator according to claim 2, wherein the groove is formed in one piece with opposing leaves that can be clamped around the guidewire to form a groove for receiving a stretched guidewire. A wire fix for use in stabilizing guide wires used in towers or buildings,
A groove formed in a portion of the wire fix and operable to connect the wire fix to the guide wire, the groove opening around the guide wire to connect the wire fix to the guide wire. Or a groove that can be removed,
A mounting portion formed on another portion of the wire fix suitable for connecting the wire fix to the tower or building.
Wire fix. 9. The wire fix of claim 8, wherein the groove is open around the guide wire to connect or disconnect the wire fix to the guide wire. 10. The wire fix of claim 9, wherein the groove is formed in two halves that can be separated to open the groove for connecting or disconnecting the wire fix to the guide wire. .. 10. The wire fix of claim 9, wherein the groove is formed in one piece with an opening formed in the groove for receiving the tensioned guidewire. 12. The wire fix of claim 11, wherein the one piece is formed of a spring having a bend, the bend having a pitch that allows the guidewire to be received between bends. The wire fix of claim 11, wherein the groove is formed by two opposing partially open grooves. 9. The groove is formed in one piece with opposing leaves that can clamp around the guidewire to form the groove for receiving the stretched guidewire. Wire fix. A system for stabilizing the vertical motion of an object in a wind generating tower, comprising:
At least one static guide,
A guide component attached to the object proximate to the static guide,
At least one further housing connected to the static guide and capable of passing through the first housing when the object moves vertically in the tower;
The further receptacle is arranged to maintain the static guide in a fixed relationship to a mounting structure, the further receptacle being arranged for in-situ mounting. ing,
system. 16. The system of claim 15, wherein the object comprises an elevator car and the at least one further housing comprises a wire fix. A fixed length guide wire stretched between an upper fixing part which is a fixing part in the upper part of the building and a lower fixing part which is a fixing part in the bottom part of the building,
A wire fix detachably connected between the fixed length guide wire between the upper fixing portion and the lower fixing portion and the fixing portion of the tower,
A guide shoe fixed to an elevator lift that moves up and down along the guide wire;
The guide shoe has an opening through which the guide wire and the wire fix pass, and the guide shoe can be detached from the guide wire without having to release the fixation with the elevator lift. it can,
Elevator system. The guide shoe includes a plurality of parts, and some of the parts forming the opening can be disassembled around the guide wire to connect or disconnect the guide shoe to the guide wire. The elevator system according to claim 17, which is configured as follows. A guide shoe for use in engaging an elevator lift with a guide wire stretched up and down in a building,
An opening forming portion that forms an opening that functions to engage the elevator lift table with the guide wire and can be disassembled into a plurality of parts, wherein at least one of the plurality of parts that forms the opening is guided by the guide. An opening forming part that can be disassembled around the wire to connect or disconnect the guide shoe to the guide wire;
A fixing portion having a mounting portion fixed to the elevator lift,
A wire fix including an elastic fixing member that connects the opening forming portion and the fixing portion. 20. The wire fix according to claim 19, wherein the elastic fixing member includes a spring biased by tightening a bolt. 21. The wire fix according to claim 19 or 20, wherein both ends of the opening forming portion of the opening are formed in flare shapes that widen toward the tip. The wire fix according to any one of claims 19 to 21, wherein the opening is formed in a C shape in which a part is opened. The wire fix according to any one of claims 19 to 22, which is made of glass fiber-containing nylon.