Abstract:
Die Erfindung betrifft ein Verfahren zur Steuerung einer Aufzugsanlage mit mehreren Aufzugskabinen (1, 1', 1'') pro Aufzugsschacht, wobei von mindestens einem Passagier auf einem Ruf eingabestockwerk ein Zielruf (T1) auf ein gewünschtes Zielstockwerk getätigt wird und von mindestens einer Zielrufsteuerung (3, 3', 3'') für den Zielruf (T1) mindestens eine günstigste Rufzuteilung (T6) für eine Beförderung des Passagiers durch die Aufzugskabine (1, 1', 1'') von einem Startstockwerk auf ein Zielstockwerk ermittelt wird. Falls mindestens ein Benachteiligungsparameter (T2) gesetzt ist, wird von der Zielrufsteuerung (3, 3', 3'') mindestens eine benachteiligungsfreie Rufzuteilung (T8) für eine Beförderung des Passagiers durch die Aufzugskabine (1, 1', 1'') von einem Startstockwerk auf ein Zielstockwerk ermittelt, bei der nach Möglichkeit Start- und Ruf eingabestockwerk bzw. Zielstockwerk und gewünschtes Ziel übereinstimmen.
Abstract:
The invention relates to a solution for the allocation of destination calls in an elevator system comprising one or more single-deck elevators and one or more multi-deck elevators, in which system the passenger enters a destination call via a destination call device. The destination call entered by the passenger is received, an elevator type to serve the destination call is selected on the basis of an elevator type selection criterion, and the destination call is allocated to an elevator consistent with the elevator type thus selected.
Abstract:
The present invention discloses an extension to a prior-art genetic algorithm, with which the routing of elevators based on the calls given in an elevator system is formed. A new type of gene, a so-called run type gene, is connected to the chromosome of the genetic algorithm according to the invention, with which gene the desired speed profile for the elevator trip can be set. In this way e.g. an upper limit can be set for the acceleration or for the maximum travel speed of the elevator. By means of the run type gene a kinetic energy term is included in the optimization. The energy consumed by the system can thus be minimized more effectively by means of the algorithm, because the varying travel speeds of the elevators create more freedom of choice for the chromosomes of the algorithm.
Abstract:
A safety exit assembly for an elevator car and an elevator system. The safety exit assembly includes: a door panel, which is configured to open and close a safety exit of the elevator car, and which has an upper surface and a lower surface; a moving assembly, which includes a guide block provided on a lower surface of the door panel, and a guide rail which guides the door panel to move downward and translate through a cooperation with the guide block; a drive assembly, which drives the door panel to reciprocate along the guide rail; and a locking assembly, which includes an unlocking element provided on an upper surface of the door panel; wherein the unlocking element is electrically connected to the drive assembly, and an unlocking action of the unlocking element triggers the drive assembly to drive the door panel to move until the safety exit is opened.
Abstract:
An elevator has an elevator car supporting frame that can travel in a travel space provided for a journey of the elevator car supporting frame. The elevator installation is also provided with a first elevator car and a second elevator car arranged on the elevator car supporting frame. Furthermore, a hydraulic moving element is arranged in a lower end region of the travel space. In this way, the first elevator car can be moved in relation to the second elevator car, by the moving device, in the lower end region of the travel space.
Abstract:
An elevator group control system, which can perform an appropriate operation so that a user can shorten the time spent until the user arrives at a destination floor in a double-deck elevator performing a double operation in at least one running direction, including a hall operating panel by use of which a user inputs a destination floor in a prescribed hall of an elevator. In a case an operation-prohibited floor of a car stopping at the hall is inputted as a destination floor from the hall operating panel, a group control device registers, as a service floor of the car, a floor preceding or beyond the destination floor inputted from the hall operating panel.
Abstract:
An elevator system includes at least two independently operable elevator cars in each elevator shaft of the system. The elevator shaft may include a first and a second region, with the first region extending from a ground level to sub-ground levels, and with the second region extending from the ground level to a top floor. A first elevator car may move within the first region and a second elevator car may move within the second region, in the same shaft independently of each other.
Abstract:
An elevator system includes at least two independently operable elevator cars in an elevator shaft. The elevator system controls loading of one of the car at ground floor level by moving the other car to a level below the ground floor level.
Abstract:
The invention relates to a triple-deck elevator equipment planning support system, arranged such that the average number of times of being stopped per going-round is calculated on the basis of a given building specification and cage specification data in a triple-deck elevator system; a total value of getting-on/off time periods of passengers, a total value of door-opening/closing time periods, and the total value of running time periods are calculated based on the average number; and a going-round time period of an elevator is calculated from these calculation results, and a practical transportation capacity per on triple-deck elevator is calculated.
Abstract:
The disclosure relates to a method of controlling a elevator installation with several elevator cages per elevator shaft, wherein a destination call to a desired destination story is actuated on a call input story by at least one passenger and at least one most favorable call allocation for transport of the passenger by the elevator cage from a start story to a destination story is determined for the destination call by at least one destination call control. If at least one disadvantage parameter is set, at least one disadvantage-free call allocation for transport of the passenger by the elevator cage from a start story to a destination story is determined by the destination call control, in which it is possible the start story and call input story or the destination story and desired destination correspond.