Abstract: An elevator trip based on destinations and activity parameters of a user is planned by a system having an elevator controller of an elevator installation, a storage device storing building plan data and a route planning computer. The user's trip inquiry, including a desired destination and a desired activity parameter, is received by the planning computer. Building plan data is read from the storage device by the planning computer. The current location of the user is determined by the planning computer, which calculates at least one route proposal based on the user's location, the destination and the activity parameter. The route proposal is communicated to the user. Upon receipt of a confirmation that the user selected the route proposal, a control signal identifying a boarding floor and a destination floor is transmitted by the planning computer to the elevator controller. The elevator installation is controlled according to the control signal.

Abstract: A method and system for controlling elevator dispatch is provided. User data, including user behavior, is collected from a number of users over a specified time period. Elevator use data for a number of elevators in a building is also collected over the specified time period. Applying the user data and elevator use data, an elevator dispatch model is constructed that predicts future elevator use according to predicted user needs. An elevator control system dispatches the elevators according to the dispatch model. The elevator dispatch model is refined according to feedback data collected from users over a subsequent time period.

Abstract: An aspect includes capturing crowd data associated with a lobby area of an elevator system. A dispatching schedule of one or more elevator cars of the elevator system is adjusted based on the crowd data. A notification of the adjustment to the dispatching schedule is output.

Abstract: A method and a control device for controlling an at least one elevator are described, by which an arriving traffic intensity is detected, the traffic intensity being a number of passengers arriving at the at least one elevator during a traffic intensity determination period, a traffic amount value is determined by comparing the traffic intensity to a maximum building population, wherein the maximum building population is a maximum number of people in a building, and the at least one elevator is controlled based on the determined traffic amount value.

Abstract: An elevator system is provided and includes at least one car; driving elements, each of the driving elements being configured to drive a corresponding car from a waiting area from which at least one passenger boards the corresponding car; at least one sensor configured to identify a presence of more than one passenger intending to board a car and in the waiting area and configured to determine a characteristic of the more than one passenger; and a controller configured to drive more than one car to the waiting area when a capacity of the corresponding car is less than the characteristic of the more than one passenger.

Abstract: An elevator device includes: a first reader, a second reader, a determination section, and a request output section. The first reader is provided in a hall of an elevator. The second reader is provided in a car of the elevator. In the case where identification information has been read by the first reader, the determination section determines whether or not the identification information has been read by the second reader before the reading thereof by the first reader. On the basis of the identification information read by the first reader, the request output section outputs a registration request for a call to a control section. In the case where the determination section determines that the identification information has been read by the second reader, the request output section does not output a registration request for a call corresponding to the identification information to the control section.

Abstract: A method and apparatus for timing a notification of an online financial event are disclosed. A sender initiates a financial transaction involving a recipient, such as a transfer payment to the recipient, by sending a message to the recipient and a computer system. The computer system obtains contact information for the sender and recipient from the message, and determines that the financial transaction cannot be completed without additional information from, e.g., the sender. The computer system sends a message to the sender requesting the additional information, and determines a period of time to wait before notifying the recipient that the transfer payment was initiated. If the period of time expires without the sender providing the additional information, the computer system sends the notification message. However, if the sender responds within the period of time, no notification message is sent, thereby avoiding the sending of a potentially unnecessary message.

Abstract: An elevator dispatching system includes a plurality of elevator groups, each of the plurality of elevator groups including a group controller and a plurality of elevator cars, each of the plurality of elevator groups serving a respective set of floors; and a redirector configured to receive a service request including a destination floor, and, in the event more than one elevator group serves the destination floor, communicate the service request to the group controllers of the more than one elevator groups, wherein the respective group controllers of the more than one elevator groups are configured to each determine a respective group score, and communicate the respective group score to the redirector, and the redirector is further configured to determine the best group based on the respective group scores.

Abstract: An elevator dispatching system includes a plurality of elevator groups, each of the plurality of elevator groups including a group controller and a plurality of elevator cars, each of the plurality of elevator groups serving a respective set of floors; and a redirector configured to receive a service request including a destination floor, and, in the event more than one elevator group serves the destination floor, determine a best group to service the request from the plurality of elevator groups based on information stored in the redirector, wherein the group controller of the determined best group is configured to determine a best car from the plurality of elevator cars in the determined best group.

Abstract: An elevator system is provided with a remote hall call registering device by use of which an elevator passenger performs a hall call registration in a position at a prescribed distance from a hall. A moving time comparison device compares the predicted moving time Te of the elevator car with the predicted walking time Tw in the case where the floor on which a remote hall call registering device is installed is set as a parking floor. A standby operation go/no go determination device makes a determination as to whether or not to perform a standby operation based on the result of the comparison of the moving time comparison device, and carries out a standby operation after responses to all calls have been finished only in the case where the standby operation go/no go determination device made a determination to the effect that a standby operation should be performed.

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: According to the present invention, when a parking floor is set as a remote-hall-operating-panel-installed floor, the parking floor can be canceled. As a result of this, during the movement of a passenger from a remote hall operating panel to an elevator hall, it is possible to prevent a car from being on standby at a remote-hall-operating-panel-installed floor. Therefore, because a car to which a remote hall registration has been assigned can effectively use the moving time of the passenger and hence it is possible to improve the operation efficiency of the whole group supervisory control system. Furthermore, it is possible to reduce useless runs and hence to reduce power consumption.

Abstract: A method and system determine peak power consumption over time by a bank of elevator for servicing a set of passenger hall calls and delivery requests, and selecting elevator schedules that keep peak power consumption below a predetermined threshold. For each car in response to receiving a hall call, a set of all possible paths to service all hall calls assigned to the car are determined, in which each path includes a set of all possible segments. A peak power consumption for each possible segment is also determined. The peak power consumptions for the set of all possible segments for each time instant are added to determine a total peak power consumption for each time instant, and a particular path is selected as a schedule to operate the bank of elevator cars, if the total peak power consumption for any instant in time while operating according to the selected schedule is below a predetermined threshold.

Abstract: An elevator group supervisory control apparatus is obtained which can achieve efficient group supervisory control while preventing or reducing the possibility of collision and the safe stopping of an upper car and a lower car in one and the same shaft as much as possible.

Abstract: An elevator control device which realizes, in a multi-car system, operation control superior in transportation efficiency. A first shunting device outputs a first shunting command for moving a car which has responded to a call request to a shunting floor. A blocked state detection device detects a blocked state in which a succeeding car cannot run due to a preceding car being in a standby state at a shunting floor, and outputs blocked-state-generation information. A second shunting device outputs a second shunting command for moving the preceding car in the standby state to a new shunting floor based on the blocked-state-generation information. Further a collective operation control device collectively controls the operation of each car based on information for each car, the first shunting command from the first shunting device, and the second shunting command from the second shunting device.

Abstract: An elevator system is provided with multiple sky lobbies to reduce the space required for elevator shafts and the space required for the entire elevator system, as well as the required elevator speed and motor capacity. Sky lobbies Ls1–Lsx are arranged above building lobby LG at ground level, with a prescribed number of floors between them. Shuttle elevator (1) stops only at building lobby LG and sky lobbies Ls1–Lsx, and passes through the various floors between lobbies by making them an express region. Local elevators service the floors in each bank between adjacent sky lobbies. Local elevators (2a), (2c), (2e), (2g) for the odd-numbered banks are arranged along the same elevator shaft, and local elevators (2b), (2d), (2f) for the even-numbered banks are arranged along another same elevator shaft.

Abstract: A method of controlling an elevator installation having a plurality of cars in a building with floors subdivided into several zones wherein travel orders are allocated to the cars. There is no allocation to an elevator car, which has just been allocated a travel order out of or into one of the zones, of any travel order out of or into another of the zones. In the case of a call after a new travel order the number of free elevator cars is compared with the number of still unallocated or still unserved zones and the allocation of the new call and is carried out in dependence on the comparison result.

Abstract: The invention relates to an elevator system in tall buildings, the system having at least one first elevator shaft, which houses an elevator arranged to stop at floors called transfer levels, and at least one second elevator shaft, which houses elevators whose elevator cars are disposed one above the other in the elevator shaft, which elevator cars are designed to stop during their travel at any floor to which or from which a call has been issued. The second elevator shaft is divided vertically into local shafts situated one above the other, the number of which is at least one for each zone between transfer levels.

Abstract: A method controls the distribution of free cars in an elevator system. First, the number of free cars in the elevator system are counted whenever this number changes. At the same time, the arrival/destination rates of passengers at each of the floor is determined. The rates are used to identify up-peak and down-peak traffic patterns. The floors of the building are then assigned to zones. The number of floors in each zone is determined according to the arrival rates, and the free cars are then parked in the zones so that the expected waiting time of the next arriving passenger is minimized.

Abstract: A device for providing access to an elevator cab includes a key access switch that is useful to generate at least one signal indicating a desire to move a specified elevator cab to a specified landing within a building. A controller communicates with the switch and responsively causes the specified elevator cab to be moved to the specified landing. The switch preferably operates in a first mode for calling the elevator cab to the specified landing. The switch preferably also operates in a second mode for selectively adjusting a position of the elevator cab within a hoistway during a maintenance procedure.

Abstract: A group controller for controlling elevator cars in a building having a plurality of floors includes an elevator dispatcher for controlling the operation of the elevator cars during single source traffic conditions, the elevator dispatcher having a constraint for limiting car assignments in response to the constraint; and an adaptive contraint generator for modifying a value of the constraint in response to an elevator control system output variable.

Abstract: Double deck elevator cars (10-12) are moveable in corresponding adjacent overlapping hoistways (7-9). Passengers entering the bottom deck (39) from a ground landing are transferred into the bottom deck (47) of a second elevator as passengers in the upper deck (46) of the second elevator are transferred to the upper deck (38) of the first elevator. Passengers in the lower deck (31) of a third elevator (10) are transferred to a lower landing (33) as passengers in an upper landing (32) enter an upper deck (30) of the third elevator. Passengers are thereafter transferred in the same fashion between the second elevator and the third elevator at a second transfer level (49).

Abstract: An elevator system for up-peak servicing of a building having a dual lobby. The system includes a controller having an electronic processor coupled to a memory; a plurality of elevator cars controllably connected to the controller, a dual lobby routine stored within the memory, the dual lobby routine includes instructions for dispatching at least one of the elevator cars to a lower lobby during up-peak, indicating a sector assigned to the car, nudging (if needed) the car if a lower lobby time-out is exceeded, dispatching the car to the upper lobby if a load weight threshold is not exceeded, and then indicating the sector assigned to the car while the car is located at the upper lobby.

Abstract: Instantaneous car assignment is combined with sectoring for providing an elevator dispatching scheme in which, in response to a hall call registered at the lobby, a car not assigned to a sector and having the lowest remaining response time of all such cars is assigned to the next available sector and the sector assignment is displayed to passengers immediately on a screen in the lobby.

Abstract: An elevator system has a low rise group of floors and a high rise group of floors and a swing car having doors and car call buttons enabling it to operate in either the low rise or high rise, the swing car being assignable to one or the other rise depending upon the burden, but also being able to accept calls in the other rise in response to a variety of characteristics of traffic within the elevator system. In one embodiment, the swing car is always assigned at the lobby to the low rise but proceeds into the high rise in response to hall calls therein; the swing car can accept down calls in the low rise if there is a high burden in the low rise or a down call has been waiting for a long time, or if the car has a very light load. Dedicated cars may be shut down and only the swing cars used at nights and on weekends. At nights and on weekends, the high rise and low rise can be effectively merged into a single system served by swing cars, thereby to save energy in light traffic.