JP5645301B2 - Elevator device with damping function - Google Patents

Description

  The present invention relates to an elevator apparatus in which a car traveling in a hoistway provided in a building or the like moves up and down, and more particularly to an elevator apparatus that suppresses vibration of the car.

  In an elevator, if there is a change in the load, such as when a passenger gets on and off, while the car is stopped, the car may vibrate up and down softly. This phenomenon is caused by, for example, expansion and contraction of the main rope in the rope type elevator, but gives passengers anxiety. Various measures have been considered to suppress this vibration. In the case of a rope type elevator, using a main rope with high rigidity is one measure, but considering the wear of the rope itself and the hoisting device, it is not possible to use a main rope with excessively high rigidity. Can not. Patent Document 1 discloses a method in which when a car is stopped and a door is fully opened, a fixing device is actuated by a command from a control device, and a car frame is fixed to a guide rail provided in a hoistway. Is disclosed. However, this method has a problem that it requires a complicated fixing device and complicated control. The elevator apparatus disclosed in Patent Document 2 includes a speed sensor that detects the speed of the car frame and an acceleration sensor that detects the acceleration of the car room, and the direction of the speed of the car frame is the acceleration of the car room. By reducing the speed of the car frame by applying braking force to the rotation of the guide roller when the direction is opposite to the direction, an inertia force opposite to the car room acceleration is generated to reduce the car room acceleration. doing. This method has many problems and requires complicated control.

JP 2001-106456 A JP 2003-104655 A

  The present invention has been made in view of the above-described problems, and an object thereof is to provide an elevator apparatus having a vibration damping function with a simple configuration.

An elevator apparatus having a vibration damping function according to an embodiment of the present invention has a car door provided on a car that moves up and down an elevator hoistway, a door surface facing the car door, and an entrance of a landing. A landing door provided; a swinging member pivotally supported on the door surface of the landing door; and an engaged roller pivotally supported by the swinging member closer to the hoistway than the swinging member. A landing door side engaging portion, a pair of engaging blades for sandwiching the engaged roller of the landing door side engaging portion, and both end portions are pivotally supported by these engaging blades, and each central portion is A car door side engaging portion having a plurality of link members pivotally supported by the car door; a car door header to which a mechanism for opening and closing the car door is fixed together with the car door side engaging portion; and Car door header A stopper provided on any one of the car door header and the door surface in the space between the car door header and the door surface on the downstream side of the door opening direction with respect to the first engagement blade on the door opening side by the mechanism. And an elastic body provided between the stopper and the first engaging blade, and when the car door and the landing door are moved to the fully open position by the mechanism , the elastic body is moved to the first position. Pressing means that pushes the engaged roller with a force greater than the door opening driving force of the car door via the first engagement blade. The elastic body moves from the stopper toward the first engagement blade with respect to the first engagement blade from the state in which the stopper or the first engagement blade is in contact with the car in the opening direction. Pressure proportional to the distance traveled Is allowed to act, is characterized in pressing to Rukoto the engaged roller via said first engagement edge.

  According to the present invention, an elevator apparatus having a vibration damping function with a simple configuration is provided.

It is the figure which looked at the car to which this invention is applied from the landing side outside a hoistway. It is an enlarged view of the part containing the car door side engaging part shown in FIG. It is the figure which looked at the landing door corresponding to the car door shown in FIG. 1 from the hoistway side. It is a figure for demonstrating an example of the interlock part provided in a landing door. It is a figure showing the state which the car door side engaging part engaged with the landing door in embodiment of this invention. It is a figure showing the operation | movement of the interlock in embodiment of this invention. It is a figure for demonstrating the elevator apparatus which has a damping function by one Embodiment of this invention. It is a figure which shows the example of the attachment form of the coil spring shown in FIG. It is a figure showing the relationship between the compression length of a spring, and pressing force. It is a figure for demonstrating the elevator apparatus which has a damping function by other embodiment of this invention. It is the figure which expanded the edge part of the door opening direction of the engagement blade roller guide member shown in FIG. It is a figure showing the relationship between the relative movement distance of the car door in embodiment shown in FIG. 10, and the pressing force of a 1st engagement blade.

  Hereinafter, an embodiment as an example of the present invention will be described as appropriate with reference to the drawings. Note that the same reference numerals denote the same parts even in different drawings. First, the case where some members of the engagement mechanism used in the elevator apparatus are used in one embodiment of the present invention will be described. FIG. 1 is a view for explaining an engaging member provided on a door (car door) of a car room housed in a car frame, and is a view of the car as seen from the landing side outside the hoistway. It is. In FIG. 1, so-called side-opening double door double door type car doors 102 and 104 are shown. However, the present invention does not depend on the double-opening method or the single-opening method, and does not depend on the number of doors. When it is confirmed that the car has arrived at the landing floor and stopped, the car doors 102 and 104 are included in the car door driving unit 108 provided in the car via the car door belt 106. It opens and closes in conjunction with the power of a car door motor (not shown). The car door 102 is provided with a car door side engaging portion 110 that transmits the movement of the car door 102 to a landing door provided on the landing floor.

  FIG. 2A is an enlarged view of the portion including the car door side engaging portion 110 in FIG. The car door side engaging portion 110 includes two link members 202 and 204. The link members 202 and 204 are pivotally attached to the plate 206 fixed to the car door 102 by means of fixing members 208 and 210, respectively. The fixing members 208 and 210 are arranged so that their centers are on a straight line in the ascending / descending direction. The two link members 202 and 204 are respectively connected to the first engaging blade 216 by connecting portions 212 a and 212 b on the closing direction side of the car door 102, and connecting portions 214 a on the opening direction side of the car door 102. 214b are connected to the second engagement blade 218, respectively. The first engagement blade 216 and the second engagement blade 218 are disposed in parallel with the elevator car's ascending / descending direction. Further, as shown in FIG. 2A, the two link members 202 and 204 are in a plane parallel to the car door 102, and are connected to the first engagement blade 216 and the second engagement blade 218. For example, it is disposed obliquely. Since the first engagement blade 216 and the second engagement blade 218 and the link members 202 and 204 are connected as described above, for example, when a force that pushes down the first engagement blade 216 is applied, Since the connecting portions 212a and 212b move downward and the connecting portions 214a and 214b move upward via the link members 202 and 204, the second engagement blade 218 moves upward. In this case, since the first engagement blade 216, the second engagement blade 218, and the link members 202 and 204 are connected, the car door of the first engagement blade 216 and the second engagement blade 218 is connected. The interval in the opening / closing direction of 102 changes. This interval is narrowed when connected in the form as shown in FIG.

  As described above, the car door 102 is opened and closed by the power of a car door motor (not shown) included in the car door driving unit 108 provided on the car via the car door belt 106. A hanger rail 222 is fixed to the door header 220 of the car room above the car door 102 in parallel to the opening / closing direction of the car door. Car door suspension members 224a and 224b are fixed above the car door 102, and car door rollers 226a and 226b are provided above the car door suspension members 224a and 224b, respectively. The car door rollers 226 a and 226 b move on the hanger rail 222. That is, the car door 102 opens and closes while being hung on the hanger rail 222 via the car door rollers 226a and 226b and the car door suspension members 224a and 224b. Similarly, the car door 104 opens and closes in conjunction with the car door 102 while being hung on the hanger rail 222 via the corresponding car door roller and the car door suspension member.

  A car door side engagement blade roller 228 is provided on the upper portion of the first engagement blade 216. An engagement blade roller guide member 230 is fixed to the door header 220 of the car compartment substantially parallel to the opening / closing direction of the car door 102. For example, the first engagement blade 216 is biased upward with an appropriate force, or the second engagement blade 218 is biased downward with an appropriate force. The joint blade 216 tries to move upward, but when the car door side engagement blade roller 228 contacts the engagement blade roller guide member 230, it cannot move any further. That is, the movement of the first engagement blade 216 in the up-and-down direction is limited by the engagement blade roller guide member 230, and the position of the first engagement blade 216 in the up-and-down direction is determined. The portion 230a of the engaging blade roller guide member 230 with which the car door side engaging blade roller 228 contacts when the car door 102 is in a fully closed state is bent away from the car door 102, that is, upward. . Accordingly, when the car door 102 moves slightly from the fully closed state in the opening direction, the car door side engaging blade roller 228 is pushed down by the engaging blade roller guide member 230, and the first engaging blade 216 is pushed down. . As described above, in the case shown in FIG. 2A, when the first engagement blade 216 is pushed down, the car door of the first engagement blade 216 and the second engagement blade 218 is used. The interval in the opening / closing direction of 102 becomes narrow. This effect is related to the landing door interlock described later.

  FIG. 2B is a schematic diagram when the car door side engaging portion 110 is viewed from above. The opposing surfaces 216a and 218a of the first engagement blade 216 and the second engagement blade 218 include, for example, a portion perpendicular to the car door 102 and parallel to the ascending / descending direction (direction perpendicular to the drawing).

  FIG. 3 is a view of the landing door corresponding to the car door shown in FIG. 1 as seen from the hoistway side. Accordingly, the landing doors 302 and 304 shown in FIG. 3 correspond to the car doors 102 and 104 shown in FIG. 1, respectively. The landing doors 302 and 304 open and close in conjunction with the car doors 102 and 104 shown in FIG. 1, respectively. However, in a normal elevator system, an error occurs when the car is not stopped on the landing floor. There is no power unit for moving the landing doors 302 and 304 on the landing side because it is dangerous to open by operation. Further, the landing doors 302 and 304 are provided with an interlock portion 306 that prevents the landing doors 302 and 304 from opening when the car is not stopped on the landing floor. The interlock part 306 according to the present embodiment includes a landing door side engagement part. When the car arrives at the landing floor and stops at a predetermined position, the landing door side engaging portion provided in the landing door 302 and the car door side engaging portion 110 are engaged, and the landing door is the car door. To open and close. FIG. 3 also shows a landing door header 308 to which members for opening and closing the landing door 304 in conjunction with the landing door 302 are attached.

  Next, the interlock part 306 provided in the landing door according to the embodiment will be described with reference to FIG. On the hoistway side of the landing door 302, a first interlock member 402 having a tip portion 404 formed in a claw shape is attached so that the tip portion 404 can swing. On the hoistway side of the landing door 304, a second interlock member 406 having a recess is fixed. FIG. 4 shows a state in which the first interlock member 402 and the second interlock member 406 are interlocked. The landing doors 302 and 304 are interlocked via a first interlock member 402 and a second interlock member 406. In the interlocked state, the first interlock member 402 and the second interlock member 406 open the landing doors 302 and 304 even if an opening force is applied to at least one of the landing doors 302 and 304. Has no shape and strength. The landing state of the landing door shown in the figure is maintained until the car arrives at the landing floor where the landing door is installed, stops at a predetermined position, and the car door starts to open, ensuring safety. Is done.

  Moreover, the interlock part 306 according to the present embodiment includes a member 410 that is swingably attached to the hoistway side of the landing door 302 via a fixing member 408. One end of the member 410 is connected to the first interlock member 402 via the link member 412. The fixing member 408 pivotally supports a first roller 414 provided further on the hoistway side than the member 410. Further, as shown in the figure, on the hoistway side of the member 410, in the interlocked state, the first member 416 is rotatably attached by a fixing member 416 provided on the landing door 304 side than the first roller 414. Two rollers 418 are provided. The interlock operation will be described later with reference to FIG.

  FIG. 5 shows a state in which the car door side engaging portion 110 is engaged with the landing door 302. That is, when the car arrives at the landing floor where the landing doors 302 and 304 are provided and stops at a predetermined position, the interlock door 306 member provided on the landing door 302 and the car door side engagement. The state which the part 110 engaged is shown. Fig.5 (a) is the figure which looked at the engagement state from the hoistway side. In order to clarify the engagement state, the car door members are not shown except for the car door side engaging portion 110. When the car arrives at the landing floor provided with the landing doors 302 and 304 and stops at a predetermined position, the first engaging blade 216 and the second engaging blade 216 of the car door side engaging portion 110 are provided. Between the blades 218, the first roller 414 and the second roller 418 of the interlock portion 306 exist. At this time, the first interlock member 402 and the second interlock member 406 of the interlock portion 306 are in an interlocked state.

  FIG. 5B is a view of the portion indicated by I-I ′ in FIG. FIG. 5B shows a car door 102 corresponding to the landing door 302.

  The interlock operation will be described with reference to FIG. FIG. 6A is an enlarged view of the interlock portion 306 in FIG. 5A, and the first interlock member 402 and the second interlock member 406 are in an interlocked state. FIG. 6B shows a state where the interlock between the first interlock member 402 and the second interlock member 406 is released. As described above with reference to FIG. 2, when the car door 102 moves slightly from the fully closed state in the opening direction, the first engagement blade 216 is pushed down, and the first engagement blade 216 and the second engagement blade 216 The interval in the opening / closing direction of the car door 102 between the engagement blades 218 is narrowed. At this time, the second roller 418 is pushed by the second engagement blade 218 toward the first engagement blade 216, and accordingly, the member 410 swings in the direction in which the left end rises. A link member 412 is attached to the left end of the member 410, and the tip of the first interlock member 402 moves upward via the link member 412, and the first interlock member 402 and the second interlock member are moved upward. The interlock with the lock member 406 is released.

  FIG. 7 shows an embodiment of the present invention using some members of an engagement mechanism used in an elevator apparatus. The figure shows a state in which the car door 102 and a landing door 302 (not shown) that engages with the door are fully opened, with the landing door 302 being closed, viewed from the landing side outside the hoistway. It is a thing. The members attached to the landing door 302 are not shown except for the interlock portion 306. The figure shows a coil spring 702 that expands and contracts in the door opening and closing direction. One end of the coil spring 702 is attached to, for example, the door header 220 of the passenger compartment. When the car door 102 is fully open, the other end of the coil spring 702 pushes the first engagement blade 216 in the door closing direction with a force greater than the driving force for opening the door. When the first engagement blade 216 is pushed in the door closing direction, the first engagement blade 216 acts to push the first roller 414 and the second roller 418 attached to the landing door 302, and The second engagement blade 218 receives a force in the door opening direction, that is, in the direction approaching the first engagement blade 216 via the link members 202 and 204. Therefore, the coil spring 702 acts so as to reduce the distance between the first engagement blade 216 and the second engagement blade 218, and the landing door 302 is between the two car door side engagement elements 216 and 218. The rollers 414 and 418 attached to the vehicle are tightened by the car door side engaging members 216 and 218 attached to the car door. This tightening action increases the frictional force between the car door side engaging elements 216 and 218 and the rollers 414 and 418, and when the car room is shaken in the up-and-down direction, the braking effect against the shake can be enhanced. it can. The link members 202 and 204 need to be obliquely attached to the car door side engaging elements 216 and 218 as shown in the drawing. This is because, if the link member and the car door side engagement element are vertical, the above effect cannot be obtained even if the car door side engagement element 216 is pushed in the door closing direction. In this embodiment, the members of the car door side engaging portion 110 and the rollers 414 and 418 attached to the landing door 302 are members of an engagement mechanism that opens and closes the landing door 302 in conjunction with the car door 102. In addition, since it functions as a member of the vibration control mechanism of the passenger compartment, fewer members are added for the vibration control function.

  In addition, when the attachment position of the car door side engaging portion 110 to the car door 102 is inappropriate, the roller 414 or the like should not be located at the center of the gap between the car door side engaging elements 216 and 218. There is. However, even in such a case, either one of the car door side engaging elements 216 and 218 presses the roller 414 and the like, and a certain braking effect can be obtained. In addition, attaching the car door side engaging portion 110 to the car door 102 so that the roller 414 or the like is positioned at the center of the gap between the car door side engaging elements 216 and 218 is equivalent to the car door side engaging portion. 110 can be easily performed by adjusting the position of the plate 206 that is attached to the car door 102 or by using an appropriate jig or the like.

  The landing door 302 can also be provided with one or more braking members 704. While the first roller 414 and the second roller 418 play a part of the function of the interlock portion 306, the braking member 704 has nothing to do with the interlock function. Therefore, the brake member 704 does not need to satisfy the requirements necessary for the interlock function, and can use a shape, a material, or the like suitable only for the function of braking the vibration of the passenger compartment. When a plurality of braking members 704 are provided, the dimensions in the door opening / closing direction are the same, and the plurality of braking members 704 are provided so as to be aligned on a straight line parallel to the ascending / descending direction.

  There are various forms for attaching the coil spring 702. FIG. 8 is a schematic view of FIG. 7 as viewed from the top in order to show an example of an attachment form of the coil spring 702. Here, the door is in a state immediately before being fully opened. The attachment form shown in FIG. 8 is common in that the car door side engagement element 216 is pressed by the coil spring 702. 8A, the coil spring 702 is fixed to the spring fixing member 802, and the spring fixing member 802 is fixed to the door header 220 of the passenger compartment. In the form shown in FIG. 8B, the coil spring 702 is fixed to the car door side engaging element 216, and the stopper 804 that receives the pressure of the coil spring 702 is fixed to the door header 220 of the car room. The form shown in FIG. 8C is different from the form shown in FIG. 8A in that the spring fixing member 802 is fixed to the door header 308 of the landing. The form shown in FIG. 8D is different from the form shown in FIG. 8B in that the stopper 804 is fixed to the door header 308 of the landing.

As is well known, the pressing force F of the spring is proportional to the length (compression length) L of the spring when the spring is compressed from a free state. The relationship between the compression length L and the pressing force F of the spring is shown in FIG. In the present embodiment, the compression length L is the distance that the car door 102 has moved further in the opening direction from the state in which the coil spring 702 has touched the car door side engaging element 216 or the stopper 804. The fully open position of the car door 102 can be determined corresponding to the above. Further, by a position and a position corresponding to a first position in which the car door 102 is fully opened to the compression length L _1, the corresponding second position in which the car door 102 is fully opened to the compression length L ₂ The pressing force of the spring in the fully open position can be set to different values such as F ₁ and F ₂ , respectively. By defining a plurality of positions at which the car door 102 is fully opened in this way, for example, the fully open position of the car door 102 is determined according to the landing floor where the vibration of the car room is large and the floor where the vibration is small. can do. The regulation and determination of the fully open position of the car door 102 can be performed by a control device, for example.

  In the above description, the case where the coil spring 702 is used as the pressing member has been described. However, the pressing member is not limited to the coil spring, and other appropriate springs, elastic bodies such as rubber, and a large rigidity are also provided. The member may be a metal, for example.

  FIG. 10 shows another embodiment of the present invention using some members of an engagement mechanism used in an elevator apparatus. The figure shows a state in which the car door 102 and a landing door 302 (not shown) that engages with the door are fully opened, with the landing door 302 being closed, viewed from the landing side outside the hoistway. It is a thing. In this figure, members attached to the landing door 302 are not shown except for the interlock portion 306. The drawing shows the engaging blade roller guide member 230 that is fixed to the door header 220 of the passenger compartment substantially parallel to the opening / closing direction of the passenger door 102, as described with reference to FIG. As described above, the engagement blade roller guide member 230 restricts the movement of the first engagement blade 216 in the up-and-down direction, and determines the position of the first engagement blade 216 in the up-and-down direction. When the car door 102 is fully open, the car door side engaging blade roller 228 attached to the first engaging blade 216 is in contact with the end portion 230b of the engaging blade roller guide member 230 in the door opening direction. Yes. The car door side engaging portion 110 is in the form shown in FIG. 10, that is, the connecting portions 212a and 212b of the link members 202 and 204 with the first engaging blade 216 are connected to the plate members 206 and 204, respectively. In the form of the fixing member 208 and the fixing member 210 attached to the same or lower than the fixing member 210, the end 230b of the engagement blade roller guide member in the door opening direction is bent downward. Therefore, when the car door 102 is fully opened, the car door side engaging blade roller 228 is pushed down by the engaging blade roller guide member 230 and the first engaging blade 216 is pushed down. As described above, in the case shown in FIG. 10, when the first engagement blade 216 is pushed down, the car door 102 is opened and closed by the first engagement blade 216 and the second engagement blade 218. The interval between directions becomes narrower. At this time, the first engagement blade 216 presses the engagement element with a force equal to or greater than the driving force for opening the door. As a result, the rollers 414 and 418 attached to the landing door 302 between the two car door side engaging elements 216 and 218 are tightened by the car door side engaging elements 216 and 218 attached to the car door. It is done. This tightening action increases the frictional force between the car door side engaging elements 216 and 218 and the rollers 414 and 418, and when the car room is shaken in the up-and-down direction, the braking effect against the shake can be enhanced. it can. Also in this embodiment, the members of the car door side engaging portion 110 and the rollers 414 and 418 attached to the landing door 302 are members of an engagement mechanism that opens and closes the landing door 302 in conjunction with the car door 102. In addition, since it functions as a member of the vibration control mechanism of the passenger compartment, fewer members are added for the vibration control function. The action of the end portion 230b in the door opening direction of the engaging blade roller guide member shown in FIG. 10 will be further described later with reference to FIG.

  Similarly to the embodiment shown in FIG. 7, when the mounting position of the car door side engaging portion 110 to the car door 102 is inappropriate, the roller 414 or the like is used for the car door side engaging element 216. And 218 may not be located at the center of the gap. However, even in such a case, either one of the car door side engaging elements 216 and 218 presses the roller 414 and the like, and a certain braking effect can be obtained. In addition, attaching the car door side engaging portion 110 to the car door 102 so that the roller 414 or the like is positioned at the center of the gap between the car door side engaging elements 216 and 218 is equivalent to the car door side engaging portion. 110 can be easily performed by adjusting the position of the plate 206 that is attached to the car door 102 or by using an appropriate jig or the like. Also, the landing door 302 can be provided with one or a plurality of braking members 704, as in the embodiment shown in FIG.

  Note that the connecting portions 212a and 212b of the link members 202 and 204 with the first engagement blade 216 are located above the fixing member 208 and the fixing member 210 that attach the link members 202 and 204 to the plate 206, respectively. In the embodiment, the end portion 230b of the engagement blade roller guide member in the door opening direction is bent upward. If the first engagement blade 216 is pushed down, the distance between the first engagement blade 216 and the second engagement blade 218 in the opening / closing direction of the car door 102 is increased.

  That is, the end 230b of the engagement blade roller guide member in the door opening direction is bent downward or upward according to the angle formed by the two link members 202, 204 and the first engagement blade 216.

FIG. 11 is an enlarged view of the end portion 230b of the engagement blade roller guide member 230 in the door opening direction, which is indicated by reference numeral 232 in FIG. Note that the car door side engagement element 216 is not shown in the drawing. FIG. 11A shows the positional relationship between the car door side engaging blade roller 228 and the engaging blade roller guide member 230 when the door approaches the fully open position. At this stage, the car door side engaging blade roller 228 is still in contact with the flat portion of the engaging blade roller guide member 230. FIG. 11B shows the positional relationship between the car door side engaging blade roller 228 and the engaging blade roller guide member 230 when the door is moved to the fully open position. The car door side engaging blade roller 228 is in contact with the curved end 230 b of the engaging blade roller guide member 230. The distance L by which the car door side engaging blade roller 228 moves from the state shown in FIG. 11A to the state shown in FIG. 11B is equal to the moving distance of the car door 102. As described above, when the car door side engaging blade roller 228 is pushed down by the engaging blade roller guide member 230, the first engaging blade 216 approaches the second engaging blade 218 and is attached to the landing door 302. The force which presses the roller 414 etc. which were received increases. FIG. 12 shows the relationship between the moving distance L of the car door 102 when the state shown in FIG. 11A is used as a reference and the force F with which the first engagement blade 216 presses the roller 414 and the like. The curve shown in FIG. 12 corresponds to the curve of the end 230b of the engagement blade roller guide member 230 in the door opening direction. Similar to the embodiment shown in FIG. 7, the fully open position of the car door 102 can be determined corresponding to the required pressing force. Further, by the car door 102 is a first position the position corresponding to the moving distance L ₁ to fully open, cage door 102 is a position corresponding to the second position to fully open the movement distance L _2, fully open The pressing force of the first engagement blade 216 in the position can be set to different values such as F ₁ and F ₂ , respectively. In this manner, as in the embodiment shown in FIG. 7, by defining a plurality of positions where the car door 102 is fully opened, for example, the floor can have a floor with a large vibration and a floor with a small vibration. Accordingly, the fully open position of the car door 102 can be determined. The fully open position of the car door 102 can be defined and determined by a control device, for example.

  Furthermore, the engaging member 216 or the portion of the engaging member 216 and the engaging member 218 that comes into contact with the braking member such as the braking member 704 is processed so that the dynamic friction coefficient with respect to the braking member becomes larger than the material of the engaging member itself. It is also useful to do. For such processing, a member having a larger dynamic friction coefficient than the engaging element itself, such as a urethane sheet, is fixed to the engaging part contacting the braking member by sticking or the like, and the engaging part contacting the braking member It includes processing to increase the coefficient of dynamic friction physically or chemically. According to this embodiment, the damping characteristics of the present apparatus are further improved.

  In addition, as described above, providing a plurality of fully open positions of the doors, an appropriate fully open position may be determined from among the fully open positions of the provided doors according to a signal from a load system for measuring the load of the cab. it can. According to this embodiment, effective vibration damping characteristics can be obtained when the load is large, and at the same time, wear of members used in the apparatus can be reduced by not using the vibration damping function when the load is large.

102, 104 Car door 106 106 Car door belt 108 Car door drive part 110 Car door side engaging part 202, 204 Link member 206 Plate 208, 210 Fixing member 212a, 212b, 214a, 214b Link member connecting part 216 1 engagement blade 218 2nd engagement blade 220 door header of the car compartment 222 hanger rail 224a, 224b car door suspension member 226a, 226b car door roller 228 car door side engagement blade roller 230 engagement blade roller guide Member 230a, 230b End of engaging blade roller guide member 302, 304 landing door 306 interlocking portion 308 landing door header 402 first interlocking member 404 first interlocking member tip 406 second interlocking Locking members 408,416 fixing member 410 member 412 link members 414 and 418 roller 702 spring 704 the braking member 802 the spring fixing member 804 stopper 1302 spring fixing member 1304 spring 1306 stopper

Claims (7)

A car door provided on the car to lift the hoistway of an elevator, and the landing door provided landing entrance has a door surface facing the car doors of this, the door surface of the hall door of this in the pivoted swing member, and said landing door side engaging portion having the pivoted engaged roller to the swing member in the hoistway nearer the swinging member, hall door side engaging this A pair of engaging blades sandwiching the engaged roller of the joint portion, and a plurality of link members each having both end portions pivotally supported by these engaging blades and each central portion pivotally supported by the car door a car door side engaging portion having a car Doahedda the mechanism for opening and closing the car door with the car door side engaging portion of this is fixed, the door-open side according to the mechanism of the car Doahedda this Downstream of the first engagement blade in the door opening direction The kick space between the car Doahedda and the door surface, and a stopper provided on one of these car Doahedda and door surface, the elastic provided between the stopper and the first engagement edge of this wherein the body, when the car door and the landing door by said mechanism is moved to the fully open position, the elastic body presses the first engagement edge in the door closing direction via the first engagement edge wherein a pressing means for pressing the engagement roller includes a resilient body of this is the direction from the stopper to the first engagement edge in the door-opening driving force more than the magnitude of the force of the car door Te the relative first engagement edge, by applying a pressing force proportional to the distance traveled to the ride KagogaHiraki direction from a state of contact with the stopper or the first engagement edge, wherein the first engagement The engaged roller is pushed through the joint blade. Elevator apparatus having a damping function, characterized in to Rukoto. The first engagement blade is swingably attached to each of two fixing members which are fixed to the car door and arranged so that the center is on a straight line in the up-and-down direction, and are substantially parallel to each other. It is attached to the first connecting part located near the end of each of the two link members and in the door opening direction with respect to the two fixing members so as to be swingable with respect to the link member in parallel with the ascending / descending direction. The second engaging blade is moved up and down in the second connecting portion provided at a position symmetrical to the first connecting portion with the fixing member corresponding to each of the two link members as a center. parallel, pivotally attached to the link member, the pre-Symbol elevator apparatus, a member for urging the first engaging blade upward, attached to an upper portion of the first engaging blade A driven car door side engaging blade roller, And Kakarigoha roller guide members fixed parallel to the opening and closing direction of the car door to serial cab Doahedda restricts the horizontal movement of the car door locking Goha roller, further comprising, prior SL-be engaging roller, when engaged, located between the first engagement edge and said second engaging blade, the previous SL cab door side engagement Goha roller, the engagement Goha roller guide member The elevator apparatus having a vibration damping function according to claim 1, wherein movement of the first engagement blade is limited by contact.   When the car door and the landing door are moved to the fully open position, the first engagement blade and the second engagement blade are such that both the engagement blades are in contact with the engaged roller. The elevator apparatus having a vibration damping function according to claim 2, wherein the elevator apparatus is attached to the elevator apparatus. 4. The control according to claim 2, wherein the two link members are attached to the first engagement blade obliquely with respect to a blade line of the first engagement blade. 5. Elevator device with vibration function. Wherein the portion that contact with the engaging roller of the first engagement edge and said second Kakarigoha, respectively, as compared with the first engagement edge and the second engagement edge of the material, The elevator apparatus having a vibration damping function according to any one of claims 2 to 4 , wherein the dynamic friction coefficient for the engaged roller is increased. Means for a plurality defining the fully open position, and a fully open position determination means for determining one of the fully open position from among a plurality of full open position which is stipulated, further control of claim 4, characterized in that it comprises Elevator device with vibration function. Further comprising a cab load measuring means for measuring the load of the cab of the car, before Symbol fully open position determining means output according to one of the plurality set fully open position of the cab load measuring means The elevator apparatus having a vibration damping function according to claim 6 , wherein a fully open position is determined.

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