Location of the controlling system

Abstract: The present invention is to provide an elevator controlling system comprising a hoisting device (31) for driving en elevator box (32), a balance weight (35), a rope (34), guide rails (36A, 36B, 37A, and 37B), and a controlling device (42) for controlling the operation of the elevator box (32) provided in a door pocket (71) installed at a certain depot, wherein an auxiliary controlling device (45) comprising at least one selected from the group consisting of an automatic landing device at the time of the service interruption, a monitor panel of display and control device, a transformer for the air conditioner power source, and an earthquake sensor other than the controlling device (42) is provided on the guide rail (36A) as an elevator component provided in the vicinity of the door pocket (71).

Description: The present invention relates to an elevator controlling system without a machine room, not requiring a machine room for installing a controlling device. In general, an elevator comprises an elevator box for accommodating a passenger, a hoisting device for driving the elevator box, a balance weight for balancing the weight, a rope for connecting the elevator box and the balance weight via the hoisting device, and a controlling device for controlling the operation of the elevator as a whole. Such kind of an elevator is referred to as a rope type elevator. As to the space in a building for installing such a rope type elevator, in general, an ascending/descending path wherein the elevator box ascends or descends, and an elevator machine room for storing the hoisting device and the controlling device (control panel) are provided in an anex room of the uppermost part of an ascending/descending path wherein the elevator box ascends or descends. The controlling components necessary for the control of the elevator including the optional components have been accommodated in the machine room. Therefore, maintenance of the controlling components has mainly been the confirmation work in the machine room. However, in a multiple dwelling house such as a high-rise apartment, a machine room with a sufficient size may not be obtained at the uppermost part of the building due to the construction conditions such as the right of light. In this case, a hydraulic type elevator, capable of installing the elevator machine room in the building has been adopted. However, even in the hydraulic type elevator, a space for the machine room is required in the building, besides, problems are involved in that the noise, vibration in driving the elevator are significant compared with the rope type elevator, and odor is generated by the use of an oil. In order to solve the problems, a method of installing an elevator controlling system in the vicinity of a depot or in a box and storing a hoisting device at the uppermost part or the lowermost part of an ascending/descending path is adopted. For example, the depth of a door pocket, which is an elevator door storing part, in some stage floors is made longer than that of the other stage floors for forming the storing part for the elevator controlling system. The storing part is provided at the depot side of the door pocket for storing the depot door for storing the elevator controlling system. The hoisting device is made smaller and thinner so as to be placed in the spare space at the uppermost part or the lowermost part of the elevator ascending/descending path. As a result, a building space other than the ascending/descending path for moving the elevator box, is not required. This is referred to as an elevator without a space for the machine room. An example thereof disclosed in Jpn. Pat. Appln. KOKAI Publication No. 59-163270 "elevator apparatus" is known. In the prior art, the controlling device is stored in the door pocket of the depot in a certain stage floor. As to the customer specification, options to be added are limited so that all the controlling device components can be stored basically in the three sides of the frame. The storage space for components not stored in the three sides of the frame are secured individually in the ascending/descending path, and the like. FIG. 1 is a longitudinal cross-sectional view of the ascending/descending path for explaining the known elevator controlling system. FIG. 2 is a lateral cross-sectional view of the ascending/descending path of FIG. 1 viewed from the above to the below. In the elevator controlling system shown in FIGS. 1 and 2, a hoisting device 31 drives a box 32 and a balance weight 35 via a rope 34. The box 32 moves vertically along two guide rails 36A, 36B (the guide rail 36B is disposed along the paper surface direction of the figure, overlapped with the guide rail 36A). The balance weight 35 moves vertically along two balance weight guide rails 37A, 37B. In order to omit the machine room, the hoisting device 31 is placed on and fixed with a hoisting device mounting base 47 fixed on the uppermost part of the box guide rails 36A, 36B, and the rope 34 lifts the box 32 by an under box sheave 33. Similarly, the balance weight 35 is lifted up by a balance weight upper sheave 38. The rope 34 is fixed with the balance weight rope hitch 39 and a box rope hitch (not illustrated). On the other hand, a controlling device 42, which governs the operation of the elevator, is stored and fixed in a door pocket 71 for storing a depot door 41 in the open state. According to the configuration, an elevator without a machine room can be realized. Two under box sheaves 33 are provided below the box 32, with the rope 34 fixed by the rope hitch at the upper part of the box guide rail 36B. This is referred to as the 2:1 roping. By placing the hoisting device 31 and the balance weight 35 at the side surface of the box 32 and adopting the above-mentioned 2:1 roping, the area of the ascending/descending path can be made smaller. As a result, the ascending/descending path can be realized only with the size of the box 32 and the size of the hoisting device 31. On the other hand, in FIG. 3A showing the external appearance on the depot side and FIG. 3B showing the cross-section on the depot side, a depot three side frame 51 is provided with a controlling device door 53 in the door pocket part for storing the depot door 41, and the controlling device 42 is stored inside the door 53. Moreover, a depot operation panel 52 is provided on the opposite side. An elevator user operates the elevator by pushing the call button of the depot operation panel 52. In general, the controlling device door 53 is provided with a controlling device door key 56 so as not to be opened easily by a user. Further, an opening and closing detector 55 for detecting the opening or closing state of the door 53. However, according to the configuration, since the elevator controlling system 42 is mounted in the vicinity of the depot used by an elevator user, if the controlling device door 53 provided in the three side frame 51, and the like, is opened by mischief, and the like, not only the person who opened the controlling device door 53 but also the users in the elevator box may be endangered by the operation mistake of the controlling device 42. That is, if the power source in the controlling device 42 is switched off by mischief, the moving elevator box is stopped so that the users in the elevator box are contained. However, on the other hand, the maintenance worker for keeping the elevator operation needs to open the controlling device door 53 for the maintenance work. Since the operation can be conducted in a machine room in a conventional rope type elevator, the safe operation is allowed without the chance of the entrance of a third person. However, since the controlling device 42 is contacted with the elevator depot, the maintenance worker is required to work in the environment where building users, that is, passengers and passers by come and go, and thus it is very dangerous. Since the controlling device 42 is usually applied with a voltage of about three phases 200V, it is possible that a child inadvertently approaches the device and gets electric shock, or the maintenance worker is also endangered, and thus it may be a big problem in the society as well. In order to prevent the problems, the controlling device door 53 is provided with the controlling device door key 56 so that a third person cannot open it easily. Moreover, the opening and closing detector 55 for detecting the door state of opening or closing and the operation circuit are provided so that the elevator is stopped when the controlling device door 53 is opened for improving the security. Hereinafter an example of a circuit of a controlling device 42 with an elevator controlling system 42 installed at the uppermost stage depot with the opening and closing detector 55 mounted on the controlling device door 53 will be explained with reference to FIG. 4. FIG. 4 is a block diagram showing the schematic configuration of the controlling device 42. The controlling device 42 mainly comprises a power source section 57, a main circuit section 58 and a controlling circuit section 70. In the power source section 57, a power line (receiving electric line 59) from the building is received by the main power source section 60 comprising a breaker, and the like, so that the power source is supplied to the controlling circuit section 70, and the like. In the controlling circuit section 70, a CPU 61 comprising a 16 bit or 32 bit microcomputer is provided for the control, and various devices are added to a bus 62 for administrating the addresses and data. That is, controlling circuit section 70 comprises a program memory section 72 of about 256 KB for storing a program for driving the CPU 61, a data memory section 63 of about 128 KB utilizing a RAM, and the like, for storing changing data, a specification data memory section 64 utilizing an electrically erasable memory device for storing data such as data related to the building and data on the speed or stoppage number, and the like, a signal input buffer 65 for converting an inputted external signal to a signal level readable by the CPU 61, and a signal output buffer 66 for outputting a signal dealt with by the CPU 61 to the outside. On the other hand, the main circuit section 58 comprises a speed controlling section 58A for smoothly driving the box 32 connected with the CPU 61 and the main circuit driving section 58B for driving the hoisting device 31 with an element such as a transistor. The driving state of the main circuit driving section 58B is detected by the pulse number by a pulse generator 73. The detected signal is inputted to a position detecting section 69 so as to be utilized for detecting the position of the box 32 or controlling the speed of driving the hoisting device 31. A signal from the opening and closing detector 55 is inputted to the signal input buffer 65. The signal, which is usually a signal of about DC 24V, is treated in the signal input buffer 65 by a photo coupler, and the like, for the voltage transfer so as to be a signal readable by the CPU 61 (about DC 5V) and stored in a resistor as the opening and closing detection signal. The signal input buffer 65 and the signal output buffer 66 refer to a high speed serial transmission for cutting down the number of lines, and exchange signals with the depot operation panels 52 at each stage via a serial transmission cable 67. A traveling cable 68 exchanges signals with the box operation panel (not illustrated). The traveling cable 68 includes the communication cable of the above-mentioned interphone 54 so that a passenger in the box 32 can talk by the interphone 54 or to a building supervisor or the elevator maintenance company by pushing the call button (not illustrated). According to the above-mentioned appliance configuration and the controlling device 42, an elevator without a machine room can be provided. In the above-mentioned conventional elevator controlling system without a machine room, the below-mentioned problems are involved. (Problem 1) Since a thin shape is demanded to a controlling device 42, only basic functions are accommodated therein. Therefore, when a customer specification not included in the basic functions is required, an auxiliary controlling device comprising at least one of auxiliary controlling appliances such as an automatic landing device at the time of the service interruption, a monitor panel display device, a transformer for the air conditioner power source, an earthquake sensor, and the like, needs to be provided at a place other than the depot storing part. As a representative installation place for the auxiliary controlling device, the use of the ascending/descending path where the box 32 moves vertically is conceivable. However, a small size is desired as the size of the ascending/descending path for the installation in a building. Therefore, only a slight space is left at the uppermost part (top part) and the lowermost part (pit) of the ascending/descending path. Moreover, for the installation of appliances, the appliances need to be fixed on the wall of the ascending/descending path, but depending on the structure of the building, sometimes a screw for the fixation cannot be mounted. Furthermore, since the ascending/descending path itself is a highly humid environment, if an appliance is fixed on the ascending/descending path, water drops generated by dew condensation can enter into the appliances so as to cause the damage to the appliance. On the other hand, if an appliance is installed in the pit, there is a risk of inundation caused by a typhoon or a heavy rain, and thus it is needed to be installed in a water proof box. (Problem 2) If auxiliary appliances are installed in the ascending/descending path, in general, it is difficult to separate lines provided between the controlling device 42 and the auxiliary appliances such as signal lines including the above-mentioned high speed serial signal lines and a signal line of about DC 24V, and an AC 100V power source line. That is, there is no place for separating the electric lines for mounting the electric lines on the wall, besides, displacement of the lines caused by the passage of time cannot be avoided. Therefore, the operation of the high speed serial signals can be affected by a noise. As a result, the operation of the elevator is affected as well, and in the case of an extremely strong noise, sometimes it attributes to the trouble of the elevator. (Problem 3) If auxiliary appliances are installed at the top part of the ascending/descending path, it is difficult to fix a heavy appliance, and thus an appliance needs to have a 10 kg or less weight so that a worker can hold it by himself. This is because the top part is in the vicinity of a hook such as a chain block, and thus devices for the work cannot be used. Therefore, a heavy device should be installed at the pit so that the problem mentioned in Problem 1 is caused. On the other hand, in the above-mentioned conventional elevator controlling system, the convenience for easily conducting the checking operation of the controlling device 42 and the auxiliary controlling device optionally added other than the controlling device has not been considered. Specifically speaking, in checking the controlling device 42 installed in the ascending/descending path and the controlling appliances (controlling components) comprising the auxiliary controlling device, a maintenance worker needs to move the box for checking while he is on the box so that he can search the installation places of the components for stopping the box himself at a position where he can check them easily. Furthermore, since the inside of the ascending/descending path is dark, a lighting appliance is necessary for the checking operation. Moreover, the maintenance worker should always be cautions so as not to resume the ordinary operation of the elevator inadvertently while he is checking the components installed in the ascending/descending path. JP 03 01 85 69 attempts to accelerate space economization and cut the wiring cost and carry out the maintenance and inspection work by one operator easily and safely by constituting a control panel from a main control panel installed in the vicinity of a getting-on field on the lowest floor and an affiliated control panel which is installed in shift arrangement in the pit of an elevation passage. EP A 0 710 618 relates to a traction sheave elevator which comprises an elevator car moving along elevator guide rails, a counterweight moving along counterweight guide rails, a set of hoisting ropes on which the elevator car and the counterweight are suspended, and a drive machine unit comprising a traction sheave driven by the drive machine and engaging the hoisting ropes. The drive machine unit of the elevator is placed in the top part of the elevator shaft. The drive machine unit is mounted on the upper end of one or more guide rails. An object of the present invention is to provide an elevator controlling system not limited by the structure of the building or the environment peculiar to the ascending/descending path such as humidity in an elevator without a machine room where the controlling unit is stored in the door pocket for storing the door of the depot. The above-mentioned object can be achieved by the following elevator controlling system. That is, the present invention provides an elevator controlling system comprising a hoisting device for driving an elevator box installed in an ascending/descending path, a balance weight installed in the ascending/descending path, a rope for connecting the balance weight and the elevator box via the hoisting device, a rail for guiding the elevator box and the balance weight vertically movably, and a controlling unit installed in a door pocket, provided at a certain depot, communicating with the ascending/descending path, for controlling the operation of the elevator box, characterized in that an auxiliary controlling unit for governing the auxiliary function of the controlling unit is provided at the rear surface of the rail of the box and the balance weight. According to the present invention, the controlling means needs not be fixed on the wall of the ascending/descending path so that the installation work can be conducted easily as well as the influence by the dew condensation can be avoided since the controlling means is installed away from the ascending/descending path, and a further advantage that an installation space according to the ascending and descending distance can be ensured can be achieved. Furthermore, the above-mentioned object can be achieved by the following elevator controlling system. That is, the present invention provides an elevator controlling system comprising a hoisting device for driving an elevator box installed in an ascending/descending path, a balance weight installed in the ascending/descending path, a rope for connecting the balance weight and the elevator box via the hoisting device, a box rail for guiding the elevator box vertically movably and a balance weight rail for guiding the balance weight vertically movably, and a controlling unit installed in a door pocket, provided at a certain depot, communicating with the ascending/descending path, for controlling the operation of the elevator box, characterized in that an auxiliary controlling unit for governing the auxiliary function of the controlling unit is provided on at least one of a rope hitch installed on the balance weight rail and a rope hitch installed on the box rail. According to the present invention, in addition to the above-mentioned effect of the invention, since the load of appliances to be installed is applied on the guide rail, the influence on the building can be reduced even if a heavy controlling means is installed. The invention can be more fully under stood from the following detailed description when taken in conjunction with the accompanying drawings, in which: FIG. 1 is a longitudinal cross-sectional view of an ascending/descending path for explaining an example of a conventional elevator controlling system; FIG. 2 is a lateral cross-sectional view of the same example; FIG. 3A is a diagram showing an external appearance of the depot of a conventional elevator controlling system; FIG. 3B is a cross-sectional view of FIG. 3A; FIG. 4 is a controlling block diagram of a conventional elevator controlling system; FIG. 5 is a longitudinal cross-sectional view of an ascending/descending path for explaining a first embodiment of the present invention; FIG. 6 is a lateral cross-sectional view of the same embodiment; FIG. 7 is a longitudinal cross-sectional view of an ascending/descending path for explaining a second embodiment of the present invention; FIG. 8 is a lateral cross-sectional view of the same embodiment; FIG. 9 is a longitudinal cross-sectional view of an ascending/descending path for explaining a third embodiment of the present invention; FIG. 10 is a lateral cross-sectional view of the same embodiment; FIG. 11 is a diagram for showing the installation state of the auxiliary controlling device of FIGS. 9 and 10; FIG. 12 is a diagram for explaining the installation state of an auxiliary controlling device of a fourth embodiment of the present invention; FIG. 13 is a longitudinal cross-sectional view of an ascending/descending path for explaining a fifth embodiment of the present invention; FIG. 14 is a controlling block diagram of a sixth embodiment of the present invention; FIGS. 15A and 15B are for explaining the configuration of FIG. 14 in the ascending/descending path; FIG. 16 is a controlling block diagram of a seventh embodiment of the present invention; FIG. 17 is a diagram for explaining the change of the stopping position depending on the selected controlling component storing box; and FIG. 18 is a controlling block diagram of an eighth embodiment of the present invention. Hereinafter embodiments of the present invention will be explained with reference to accompanied drawings. (First embodiment) FIGS. 5 and 6 show the first embodiment of the present invention. Same numerals are applied to the parts the same as FIGS. 1 to 4 and further explanation is not provided herein. In this embodiment, an auxiliary controlling device 45 is fixed to a guide rail 36A, as an elevator component provided in the vicinity of a door pocket 71 with supporting members 43A, 43B so that the auxiliary controlling device 45 is disposed at the upper left side of a hoisting device provided at the top part of the ascending/descending path. The auxiliary controlling device 45 comprises at least one of an automatic landing device at the time of the service interruption, a monitor panel of display and control device, a transformer for the air conditioner power source, and an earthquake sensor, other than a controlling device 42. The supporting members 43A, 43B will be explained in detail. A bolt part is formed in the guide rail 36A provided in the ascending/descending path for fixing the hoisting device 31. In this embodiment, the auxiliary controlling device 45 is mounted utilizing the bolt part. That is, one end of the supporting members 43A, 43B is fixed to the bolt part of the guide rail 36A. The two supporting members 43A, 43B are disposed horizontally with respect to the longitudinal direction thereof, with a distance existing with respect to the wall surface of the ascending/descending path and supporting the auxiliary controlling device 45 at the other end side. By having at least the lower supporting member 43B in an L-shape among the two upper and lower supporting members 43A, 43B, the auxiliary controlling device 45 can be held thereby so that the auxiliary controlling device 45 can be mounted easily with the supporting member 43B. By welding a nut of about 20 mm to both upper and lower supporting members 43A, 43B in advance, the auxiliary controlling device 45 can be mounted easily. As the supporting members 43A, 43B, a steel plate of about 1m length, 5 mm thickness and 20 mm width can be used with a sufficient strength for an elevator with 6 people capacity. Furthermore, there is a risk of generating noise by the contact of the auxiliary controlling device 45 and the ascending/descending path wall by the vibration of the guide rail 36A. In order to prevent the noise generation, it is preferable to have at least 10 mm distance between the auxiliary controlling device 45 and the wall. However, since generally a rail bracket is mounted to the uppermost part of the guide rail 36A, the vibration of the guide rail 36A is constrained by the bracket and thus the vibration of the guide rail 36A is not considered as problematic. In the first embodiment, the auxiliary controlling device 45 is installed by utilizing the space in the vicinity of the guide rail 36A between the box 32 and the wall of the ascending/descending path, and using the bolt part preliminarily formed in the guide rail 36A while paying attention to the guide rail 36A as an elevator component provided in the vicinity of the door pocket 71. Therefore, in installing the auxiliary controlling device 45, the space can be used effectively, and a new fixing member or elevator component is not needed in the ascending/descending path. Moreover, since the auxiliary controlling device 45 is installed at a position equivalent to that of the hoisting device 31 in the first embodiment, a maintenance worker can conduct the maintenance work for the auxiliary controlling device 45 and the hoisting device 31 at the same time, and thus it is advantageous that the maintenance work can be conducted efficiently. (Second embodiment) The second embodiment of the present invention will be explained with reference to FIGS. 7 and 8. In this embodiment, the auxiliary controlling device 45 is supported and fixed further by a supporting member 44 in addition to the supporting members 43A, 43B of the first embodiment. Therefore, attention is paid to the guide rail 36A as an elevator component provided in the vicinity of the door pocket 71 in this embodiment as well. In this embodiment, a power source line of, for example, AC 100V to be taken into the auxiliary controlling device. 45 is supplied to the auxiliary controlling device 45 from the hoisting device 31 side via the supporting members 43A, 43B, and a signal line is supplied to the auxiliary controlling device 45 from the hoisting device mounting base 47 via the supporting member 44. This can be determined by the positional relationship among the above-mentioned power source line and signal line and the power source of the hoisting device 1 (that is, the motor power line) because it is preferable that the above-mentioned power source line and signal line and the motor power line to be supplied to the hoisting device 31 are placed at the same place since the motor power line is placed from the controlling device 42 via the guide rail 36A. On the other hand, by gathering signal lines at the hoisting device mounting base 47 via the balance weight guide rail 37A and supplying a signal from the supporting member 44 to the auxiliary controlling device 45, the electric lines can be separated. Moreover, the supporting member 44 contributes not only to the placement of the signal lines but also to increase the strength of mounting the auxiliary controlling device 45 by being provided slantwise from the hoisting device mounting base 47 (fixed at one end with a bolt, and the like) in addition to the supporting members 43A, 43B provided only from the rail in the first embodiment. Furthermore, since the supporting member 44 is not for directly supporting the auxiliary controlling device 45, a steel plate of about 2 mm thickness can be used sufficiently in terms of the strength unlike the supporting members 43A, 43B of a 5 mm thickness steel plate, and it is preferable to have mounting holes for fixing the signal lines with about 30 cm interval therein. On the other hand, substrates to be controlled by the serial transmission cable 67 are stored in the auxiliary controlling device 45. This is an appliance for extending the signal input buffer 65 and the signal output buffer 66. The number of mounting them can be changed according to the building specification. In addition to the advantages achieved by the first embodiment, the second embodiment heretofore mentioned particularly advantageous for storing a circuit using a serial transmission in the auxiliary controlling device 45. (Third embodiment) The third embodiment will be explained with reference to a longitudinal cross-sectional view of an ascending/descending path shown in FIG. 9, a lateral cross-sectional view of the ascending/descending path shown in FIG. 10, and a diagram showing the installation state in detail shown in FIG. 11. In this embodiment, attention is paid to the box guide rail 36A and the balance weight guide rail 37A as an elevator component provided in the vicinity of the door pocket 71. In FIGS. 9 to 11, a space for installing the hoisting device 31 exists between the box guide rail 36A and the wall surface of the ascending/descending path. In this embodiment, the auxiliary controlling devices 46A, 46B, 46C are provided in the space. That is, the auxiliary controlling devices 46A, 46B are provided on the guide rail 36A at least other than rail brackets 50. Since the rail brackets 50 are provided generally with a 5m interval, if the length of each auxiliary controlling device 46A, 46B, 46C with respect to the ascending/descending path direction is 1m, 3 to 4 auxiliary controlling devices can be stored. The length of the rail brackets is 15 cm. According to the third embodiment heretofore mentioned, the auxiliary controlling devices 46A, 46B, 46C can be installed within the size corresponding with the ascending and descending distance so that a large number of auxiliary controlling devices 46 can be installed compared with the first and second embodiments where the auxiliary controlling device is installed at the top part of the ascending/descending path. Therefore, it is advantageous that the auxiliary controlling devices 46A, 46B can be allotted depending on the appliances to be stored. That is, an auxiliary controlling device according to the characteristics of the appliances to be installed, such as a resistor generating heat, a transformer for converting electric power, and a serial transmission substrate, can be provided so that a plurality of appliances can be separated according to the characteristics. (Fourth embodiment) The basic configuration of the fourth embodiment is basically the third embodiment except that the attachment of the auxiliary controlling device to the guide rail is improved. FIG. 12 is a diagram showing the details of the attachment. In FIG. 12, a space surrounded by the box guide rail 36A, the balance weight guide rail 37A and the ascending/descending path has size of only about 200 mm × 200 mm and thus if the auxiliary controlling device 46 is fixed to the rails 36A, 37A directly, it is problematic in that the maintenance check and replacement thereafter may be difficult. In order to prevent the problem, in this embodiment, one end part of an L-shaped supporting member 49 is mounted to the balance weight guide rail 37A with a bolt, and the like, and the auxiliary controlling device 46 is fixed to the other end part side of the supporting member 49 by some means. According to the configuration, a maintenance worker can check the auxiliary controlling device 46 from the box 32 toward the direction of the guide rail 36A, and thus it is effective for preventing the above-mentioned problem. (Fifth embodiment) The fifth embodiment will be explained with reference to a longitudinal cross-sectional view of an ascending/descending path shown in FIG. 13. In the fifth embodiment, the balance weight rope hitch 39 is provided lower than the ordinary case, with an auxiliary controlling device 48 mounted on the hitch 39. Similar to the first embodiment, one end part of the supporting member 49 is fixed to the uppermost end of the guide rail 36A, and the auxiliary controlling device 48 is fixed to the other end side of the supporting member 49. Since the strength of the supporting member 49 is weaker than the guide rail 37B, it is effective to support the weight of the auxiliary controlling device 48 at the top part of the guide rail 37B for maintaining the strength of the supporting member 49. It is preferable to place an appliance for driving a battery such as an automatic landing device at the time of the service interruption in the auxiliary controlling device 48. Since the auxiliary controlling device 48 can be stored with the rope hitch part 39 owing to the configuration including the supporting member 49 in the fifth embodiment, an effect of improving the appearance of the top part of the ascending/descending path can be achieved as well. Although explanation has been given in the first to fifth embodiment that the auxiliary controlling device 48 is for storing an appliance comprising at least one of the auxiliary controlling appliances such as an automatic landing device at the time of the service interruption, a monitor panel display device, a transformer for the air conditioner power source, and an earthquake sensor, an operation device for the maintenance 100 explained later in the sixth embodiment can also be stored. (Sixth embodiment) The sixth embodiment of the present invention will be explained with reference to FIGS. 14 to 15. FIG. 14 is a block diagram showing the configuration of an elevator controlling system according to the sixth embodiment of the present invention. The run controlling device 4 is the main device for controlling the run of the elevator. The run controlling device 4 runs the elevator while confirming the existence of the box call or the depot call through the memory device 3, and stores data on the run state of the elevator in the memory device 3. Detection of the box position can be conducted by the output from the pulse generator 1 outputted in proportion to the rotation of the hoisting device 20. A detection signal from the pulse generator 1 is sent to the memory device 3 via the pulse input device 2 so as to be stored regularly therein. In the sixth embodiment of the present invention, an operation device for the maintenance 100-1 is added to the elevator controlling system with the above-mentioned configuration. The operation device for the maintenance 100-1 is stored in the controlling component storing box A and the controlling component storing box B later described. The operation device for the maintenance 100-1 herein comprises a check position detecting section 10 for detecting whether an elevator box approaches to a pulse at a certain position preliminarily stored from the installation place pulse value of the controlling component storing box, a check position stopping section 11 for stopping the elevator if the check position detecting section 10 is operated in the on-box check operation to be conducted on the box, an ascending/descending path top part illumination 12 for lighting the controlling component storing box, and the like, related to the hoisting device 20 comprising an AC 100V incandescent lamp, and the like, a top part illumination automatic switching section 13 for automatically switching on the top part of the ascending/descending path illumination 12 when the check position detecting section 10 is operated, a storing box opening and closing section 14 comprising a switch, and the like, mounted on the box opening and closing part later described for detecting the opening and closing state of the controlling component storing box later described, and an ordinary operation prohibiting section 15 for prohibiting the ordinary operation run while the controlling component storing box is opened. FIGS. 15A and 15B are diagrams for explaining the inside of the ascending/descending path in this embodiment. FIG. 15A is a side view of the side where the hoisting device 20 is installed, and FIG. 15B is a plan view of the ascending/descending path viewed from the ceiling. Two box installation fixing brackets 18 are mounted to the top part of the rail 21 installed with the hoisting device 20. The brackets 18 are positioned horizontally with the longitudinal direction thereof along the depth direction of the box. A controlling component storing box A and a controlling component storing box B are fixed to the box installation fixing brackets 18. Both boxes A, B are placed in the cross-sectional space in the ascending/descending path excluding the projection plane of the box 22. In this embodiment, attention is paid to the rail 21 mounted with the hoisting device 20 as an elevator component installed in the vicinity of the door pocket so that the controlling component storing boxes A, B are fixed with the two box installation fixing brackets 18 provided on the rail 21. The operation device for the maintenance 100-1 is stored in the controlling component storing boxes A, B. However, an appliance comprising at least one of the auxiliary controlling such as an automatic landing device at the time of the service interruption, a monitor panel of display and control device, a transformer for the air conditioner power source, and an earthquake sensor other than the run controlling device (controlling device) 4 explained in the first to the fifth embodiments, can also be stored therein. According to the sixth embodiment, the elevator box can be stopped automatically at a place convenient for checking the controlling section installed in the ascending/descending path, and further, the security in the checking operation for the components in the ascending/descending path can be improved. (Seventh embodiment) FIG. 16 is a block diagram showing the configuration of the elevator controlling system according to the seventh embodiment of the present invention. In this embodiment, an operation device for the maintenance 100-2 stored in a plurality of controlling component storing boxes, is provided by adding a controlling component check subject selecting section 16 for selecting the controlling component storing box to be the subject of the check from data in the memory device 3 by the operation of the maintenance data storing device such as a console 5 and a stopping position setting switching section 17 for resetting the stopping position data set in the memory device 3 to a detecting position appropriate for checking the controlling component storing box selected by the check subject selecting section 16 to the operation device for the maintenance 100-1 according to the sixth embodiment. FIG. 17 shows the changing state of the stopping position according to the selected controlling component storing box. In the figure, the mark A represents the controlling component storing box A, the mark B represents the controlling component storing box B, the mark C represents the controlling component storing box C, and the mark D represents the controlling component storing box D. The mark L represents the set length from the controlling component storing boxes A, C, D to the box stopping position. The mark H1 represents the box stopping position when the controlling component storing box A is selected. The mark H2 represents the box upper end stopping position when the controlling component storing box C is selected. The mark H3 represents the box upper end stopping position when the controlling component storing box D is selected. That is, if the controlling component storing box A is selected, the position H1 with the box upper end below the controlling component storing box A by the length L is set as the stopping position. The length L is generally set at about 1300 mm. However, the data can be set by the memory device 3. For example, in the case of 1300 mm, with a 1 mm/pulse pulse value, 0.514H is stored. Similarly, if the controlling component storing box C is selected, the position H2 is set as the stopping position, and if the controlling component storing box D is selected, the position H3 is set as the stopping position accordingly. According to this embodiment, the elevator box can be stopped at a position appropriate for the check even when the controlling component storing boxes are provided at plural spots. Since a maintenance worker needs to operate the elevator while stooping because a space sufficient for the maintenance work cannot be secured at the top part of the ascending/descending path, an extremely advantageous means can be provided by allowing the automatic stoppage. (Eighth embodiment) FIG. 18 is a controlling block diagram showing the eighth embodiment. An operation device for the maintenance 100-3 is provided by provided a human body sensing section 30 comprising a heat sensor in place of the controlling component check position detecting section 10 in FIG. 16. The operation device for the maintenance 100-3 is stored in the controlling component storing box. Since the temperature in the ascending/descending path is high so that an ordinary switch may be operated mistakenly, the operation device for the maintenance 100-3 according to this embodiment employs a heat sensor as the human body sensing section 30. According to the configuration of this embodiment, the above-mentioned mistaken operation can be prevented, and furthermore, the effect of the embodiment shown in FIG. 17 can be achieved That is, the elevator box can be stopped automatically at a position convenient for the check of the controlling components installed in the ascending/descending path as well as the security in the checking operation for the components in the ascending/descending path can be improved. (Other embodiments) Although an example with the auxiliary controlling device 45 mounted at the box door 40 side with respect to the hoisting device 31 is shown in the first embodiment, it can be mounted on the opposite side with respect to the box door 40. Moreover, although an example with the auxiliary controlling device 45 mounted with the supporting member 43 with one end part fixed to the box guide rail 36 is shown in the first embodiment, it can be fixed directly to the box guide rail 36 with a bolt, and the like, without using the supporting member 43. In an embodiment without using the supporting member 43, since a signal line or a power source line cannot be placed by utilizing the supporting member 43, they need to be installed on the guide rail as in the prior art. Furthermore, although the balance weight guide rail 37 can be used as the guide rail in addition to the box guide rail 36, or a vertical member dedicated for mounting the ascending/descending path appliances (a member corresponding with the rail) can be used as well. Although a configuration where the supporting member 44 is installed from the hoisting device mounting base 47 is shown in the second embodiment, the supporting member can be provided directly from the controlling device 42. In this case, since a signal line can be placed directly from the controlling device 42, a higher effect can be achieved compared with the second embodiment. Moreover, it is also advantageous in that the supporting member can be used for mounting a maintenance appliance for the hoisting device or a sound proof device. Although a configuration where a plurality of the auxiliary controlling devices 46 are provided below the hoisting device 31 is shown in the third embodiment, it is also possible that a long auxiliary controlling device 46 is provided between rail brackets such that the internal appliances are changed depending on the building specification. In this case, it is advantageous in that one kind of the auxiliary controlling device 46 is used. Although a configuration where the supporting member 49 is placed at the rear surface of the balance weight guide rail 37A is explained in the fourth embodiment, it is also possible to fix the supporting member from the box guide rail 36A. Moreover, it is also possible to fix the supporting member 49 from the rail bracket 50. The supporting member 49 is not necessarily L-shaped but can also have a configuration pulled horizontally from the box guide rail 36A. In this case, in general, the auxiliary controlling device 46 is stored between the rails such that the auxiliary controlling device 46 can be pulled horizontally beside the box guide rail 36A at the time of the maintenance work. Although an example of a heavy appliance is explained in the fifth embodiment, one with a light weight such as the auxiliary controlling device 45 can also be used. Moreover, the same effect can be realized with the box guide rail in place of the balance weight guide rail. Moreover, although an example with the detecting position of the elevator as the output value from the pulse generator is explained in the sixth to eighth embodiments, it is also possible to detect the position of the elevator by providing a switch or a light detector at an optional position as needed. According to the present invention heretofore explained, in an elevator without a machine room where the controlling device is stored in the door pocket for storing the door of the depot, an elevator controlling system without the limitation by the building structure or by the environment peculiar to the ascending/descending path such as the humidity can be provided, furthermore, an elevator controlling system allowing the safe and efficient maintenance check operation for the controlling appliances comprising the controlling device or the auxiliary controlling device installed in the ascending/descending path can be provided.

Claims: An elevator controlling system comprising a hoisting device (31) for driving an elevator box (32) installed in an ascending/descending path, a balance weight (35) installed in the ascending/descending path, a rope (34) for connecting the balance weight (35) and the elevator box (32) via the hoisting device (31), a rail (36A, 36B, 37A, 37B) for guiding the elevator box (32) and the balance weight (35) vertically movably, and a controlling unit (42) installed in a door pocket (71), provided at a certain depot, communicating with the ascending/descending path, for controlling the operation of the elevator box (32), characterized in that an auxiliary controlling unit (46) for governing the auxiliary function of the controlling unit (42) is provided at the rear surface of the rail of the elevator box (32) and the balance weight (35). The elevator controlling system according to claim 1, characterized by further comprising a supporting member longer than the width of the rail provided at the rear surface of the rail of the box or the rail of the balance weight (35) for fixing the auxiliary controlling unit (46) so that the auxiliary controlling unit (46) can be checked from the elevator box side. The elevator controlling system according to claim 1, characterized in that the auxiliary controlling unit (46) is at least one of the auxiliary controlling appliances such as an automatic landing device at the time of the service interruption, a monitor panel of display and control device, a transformer for the air conditioner power source, and an earthquake sensor. An elevator controlling system comprising a hoisting device (31) for driving an elevator box (32) installed in an ascending/descending path, a balance weight (35) installed in the ascending/descending path, a rope (34) for connecting the balance weight (35) and the elevator box (32) via the hoisting device (31), a box rail (36A) for guiding the elevator box (32) vertically movably and a balance weight rail (37A) for guiding the balance weight (35) vertically movably, and a controlling unit (42) installed in a door pocket, provided at a certain depot, communicating with the ascending/descending path, for controlling the operation of the elevator box (32), characterized in that an auxiliary controlling unit (46) for governing the auxiliary function of the controlling unit (42) is provided on at least one of a rope hitch installed on the balance weight rail (37A) and a rope hitch installed on the box rail (36A). The elevator controlling system according to claim 4, characterized in that the auxiliary controlling unit (46) is at least one of the auxiliary controlling appliances such as an automatic landing device at the time of the service interruption, a monitor panel of display and control device, a transformer for the air conditioner power source, and an earthquake sensor.

Inventors: NAKAJIMA YUTAKA, OZEKI AKIHIRO, NAKAJIMA, YUTAKA, OZEKI, AKIHIRO, Nakajima, Yutaka, Intellectual Property Division,, Ozeki, Akihiro, Intellectual Property Division,
Applicants: TOSHIBA KK, KABUSHIKI KAISHA TOSHIBA
Application year: 1999
Main classification: B66B11
IPC codes: B66B1, B66B11, B66B7, B66B13