">
    51.
    发明授权
    "Artificial intelligence", based learning system predicting "peak-period" t i 失效
    “人工智能”,基于学习系统预测电梯调度的“高峰期”时间

    公开(公告)号:US5241142A

    公开(公告)日:1993-08-31

    申请号:US644356

    申请日:1991-01-22

    Abstract: The present invention is directed to an elevator dispatching system for controlling the assignment of elevator cars. More particularly, the present invention is directed to a method of determining the commencement and/or conclusion of UP-PEAK and DOWN-PEAK periods of operation. For example, for commencing UP-PEAK operation, a lobby boarding rate is predicted, based on historical information of the number of passengers boarding the elevators at the lobby and the number elevators leaving the lobby. The predicted lobby boarding rate is compared with a predetermined threshold value. If the predicted lobby boarding rate is greater than the predetermined threshold value, UP-PEAK is commenced. In the preferred embodiment, the predetermined threshold value is a predetermined percentage of the elevator car's capacity. Additionally, the present invention is directed to a method of adjusting the threshold value based on actual passenger traffic. For example, once UP-PEAK is commenced, the load of the first few elevators leaving the lobby within a predetermined time interval is determined, and the threshold value is adjusted based on their determined load. If the determined load is greater than a certain percentage of the elevator car's capacity, indicative of starting UP-PEAK too late, the threshold value is decreased. Similarly, if the determined load is less than a certain percentage of the elevator car's capacity, indicative of starting UP-PEAK too soon, the threshold value is increased.

    Abstract translation: 本发明涉及一种用于控制电梯轿厢分配的电梯调度系统。 更具体地,本发明涉及一种确定UP-PEAK和DOWN-PEAK操作周期的开始和/或结论的方法。 例如,为了开始UP-PEAK操作,可以根据登上大厅的电梯的乘客人数和离开大厅的数字电梯的历史信息预测大厅登机率。 将预测的大厅登机率与预定的阈值进行比较。 如果预测大厅登机率大于预定阈值,则开始UP-PEAK。 在优选实施例中,预定阈值是电梯轿厢容量的预定百分比。 另外,本发明涉及一种基于实际乘客流量来调整阈值的方法。 例如,一旦UP-PEAK开始,确定在预定时间间隔内离开大厅的前几台电梯的负载,并且基于它们确定的负载来调整阈值。 如果确定的负载大于电梯轿厢容量的一定百分比,表示启动UP-PEAK太晚,阈值就会降低。 类似地,如果确定的负载小于电梯轿厢容量的一定百分比,表示启动UP-PEAK太早,则阈值增加。

    Defining the traffic mode of an elevator, based on traffic statistical
data and traffic type definitions
    52.
    发明授权
    Defining the traffic mode of an elevator, based on traffic statistical data and traffic type definitions 失效
    基于交通统计数据和交通类型定义定义电梯的交通模式

    公开(公告)号:US5229559A

    公开(公告)日:1993-07-20

    申请号:US612681

    申请日:1990-11-15

    CPC classification number: B66B1/2408 B66B2201/402 B66B2201/403 Y10S706/90

    Abstract: A method for controlling an elevator group in which statistical data on a traffic flow within an elevator group, representing the times, local and total volumes of the traffic, and a number of different traffic types used in a group control are stored in a memory unit belonging to the control system. The traffic flow is divided into two or more traffic components, the relative proportion or different traffic components and the prevailing traffic intensity are deduced from the traffic statistics, the traffic components and traffic intensity, i.e. the traffic factors, are subjected to assumptions whose validity is described by means of membership functions of the factors. A set of rules which correspond to different traffic types are formed from these factors and are assigned values by means of the factors and membership functions, the rule which best describes the prevailing traffic is selected, and the traffic type corresponding to the selected rule is used in the control of the elevator group.

    Elevator dispatching based on remaining response time
    53.
    发明授权
    Elevator dispatching based on remaining response time 失效
    基于剩余响应时间的电梯调度

    公开(公告)号:US5146053A

    公开(公告)日:1992-09-08

    申请号:US661966

    申请日:1991-02-28

    Abstract: The present invention is directed to assigning an elevator car in response to a hall call, based on a series of bonuses and penalties and remaining response time, defined herein as an estimation of the amount of time required for an elevator car to reach the floor at which the hall call is registered, given the car calls and hall calls to which the elevator car is committed. Upon the registration of a hall call, a relative system response (RSR) value for each elevator car is determined based on a series of bonuses and penalties. Additionally, a remaining response time (RRT) value for each car is determined. The RRT value of the elevator car having the most favorable RSR value is compared with the RRT value of the elevator car having the lowest RRT value. Based on this comparison, one of the two elevator cars will be assigned to service the hall call. The present invention preferably assigns the hall call to the elevator car which has the lowest RSR value, except where there exists another car which could reach the floor registering the hall call at least a predetermined amount of time before the car having the most favorable RSR value.

    Abstract translation: 本发明旨在基于一系列的奖金和惩罚以及剩余响应时间来响应于门厅呼叫来分配电梯轿厢,这里定义为电梯轿厢到达地板所需的时间量的估计 给予电梯轿厢的轿厢呼叫和门厅呼叫,门厅呼叫被登记。 在门厅呼叫的登记时,基于一系列奖金和惩罚来确定每个电梯轿厢的相对系统响应(RSR)值。 另外,确定每个轿厢的剩余响应时间(RRT)值。 具有最佳RSR值的电梯轿厢的RRT值与具有最低RRT值的电梯轿厢的RRT值进行比较。 基于此比较,两台电梯轿厢之一将被分配到门厅呼叫。 本发明优选地将门厅呼叫分配给具有最低RSR值的电梯轿厢,除了在具有最有利的RSR值的轿厢之前,至少存在预定时间量的另一辆可能到达登机门厅呼叫的轿厢 。

    Method and apparatus for effecting group management of elevators
    54.
    发明授权
    Method and apparatus for effecting group management of elevators 失效
    影响电梯集团管理的方法与装置

    公开(公告)号:US5083640A

    公开(公告)日:1992-01-28

    申请号:US538359

    申请日:1990-06-13

    Applicant: Shintaro Tsuji

    Inventor: Shintaro Tsuji

    Abstract: A group management method and apparatus for elevators is disclosed. The apparatus includes a car-position predicting device for predicting a car position and a car direction which will have been taken by each car when a predetermined time has elapsed, a predicted-empty-car detecting device for predicting from the predicted car position and direction an empty car which will be available when the predetermined time has elapsed, and an assignment restricting device for restricting the assignment of the predicted empty car to a floor call. In the group management method, a waiting time derived from a registered floor call which is assigned to each car is evaluated, and a car to be assigned to the floor call is selected on the basis of the result of the evaluation.

    Abstract translation: 公开了一种用于电梯的组管理方法和装置。 该装置包括用于预测在预定时间过去时将由每个轿厢采取的轿厢位置和轿厢方向的轿厢位置预测装置,用于从预测的轿厢位置和方向预测的预测空车检测装置 当预定时间过去时可以使用的空车,以及用于限制预定空车的分配到地面通话的分配限制装置。 在组管理方法中,评估从分配给每个轿厢的登记楼层通话导出的等待时间,并且基于评估结果选择要分配给楼层通话的轿厢。

    Apparatus for performing group control on elevators
    55.
    发明授权
    Apparatus for performing group control on elevators 失效
    用于对电梯执行组控制的装置

    公开(公告)号:US4760896A

    公开(公告)日:1988-08-02

    申请号:US102587

    申请日:1987-09-29

    Applicant: Toru Yamaguchi

    Inventor: Toru Yamaguchi

    Abstract: An apparatus for performing a group control on elevators is disclosed, by which a total operation of the elevators for respective floors of building is controlled. This apparatus includes condition-instruction table which contains a plurality of predetermined control rules being defined by given conditions and given instructions. The apparatus also includes an elevator controller for detecting, in accordance with a specific rule selected from the control rules, a degree of establishment of the given conditions to provide a detected condition, and for generating, in accordance with the detected condition, an elevator control instruction used for performing the group control.

    Abstract translation: 公开了一种用于对电梯进行组群控制的装置,由此控制建筑物各楼层的电梯的总体操作。 该装置包括条件指令表,其包含由给定条件和给定指令定义的多个预定控制规则。 该装置还包括电梯控制器,用于根据从控制规则中选出的特定规则,检测给定条件的建立程度以提供检测条件,并根据检测到的状况来检测电梯控制 用于执行组控制的指令。

    Dynamically reevaluated elevator call assignments
    57.
    发明授权
    Dynamically reevaluated elevator call assignments 失效
    动态重新评估电梯呼叫分配

    公开(公告)号:US4323142A

    公开(公告)日:1982-04-06

    申请号:US99945

    申请日:1979-12-03

    Applicant: Joseph Bittar

    Inventor: Joseph Bittar

    Abstract: An elevator control system employs a microprocessor-based group controller which communicates with the cars of the elevator system to determine the condition of the cars, and responds to hall calls registered at a plurality of landings in the building serviced by the cars under control of the group controller, on a cyclic basis which recurs several times per second, to assign every unanswered hall call to a car deemed best suited for response to that call, in each cycle, based upon the information provided by the car to the group controller within that cycle of operation. In any cycle in which a call is assigned to a car other than a car to which the call had previously been assigned, the assignment of the call to the previous car is nullified. At the end of each cycle, any car which indicates that its committable position coincides with the floor of a hall call which has been assigned to it will receive a stop command. In the assignment of calls to cars, preference is given to any car which previously had a call, although the preference is relative and not absolute. Exemplary elevator apparatus, signal processing apparatus, and logic flow diagrams are disclosed to illustrate the specific manner of assigning calls to cars on a continuously updated basis, and to illustrate the environment in which the invention may be practiced.1. Technical FieldThis invention relates to elevator systems, and more particularly to the response to hall calls by a selected one of a group of elevators serving floor landings of a building in common, on a continuously updated basis.Background ArtAs elevator systems have become more sophisticated, including a large number of elevators operating as a group to service a large number of floors, the need developed for determining the manner in which calls for service in either the up or down direction registered at any of the floor landings of the building are to be answered by the respective elevator cars. The most common form of elevator system group control divides the floors of the building into zones, there being one or several floors in each zone, there being approximately the same number of zones as there are cars in the elevator system which can respond to group-controlled service of floor landing calls. Typical operation of such systems forces a car into any zone which does not have an elevator in it, and causes the car to attempt to respond to all the calls registered within the zone. However, the answering of any calls by the car, and the demands made by the passengers in registering car calls will normally carry the car outside of the zone; also, if the car commences traveling upwardly to answer up calls, it is unavailable to answer down calls. For that reason, systems operating under a zone-controlled mode of operation require a wide variety of additional features. For instance, if the calls in a zone are not answerable by the car in that zone, a car may be borrowed from another zone which has no calls; or, if one zone has no car in it, and no car is available for assignment to it, a zone of lesser importance might lose its car in favor of the zone under consideration. In the zone-controlled systems, it frequently occurs that some calls are not answered at all after an impermissible delay; therefore, such systems frequently have one or two modes of backup operation, ultimately resulting in a non-zone type of a flat command to a car to answer a call which has been registered for an impermissible time.A more recent innovation has been the assignment of calls to cars by scanning all unassigned registered hall calls, comparing the location and direction of each such unassigned call with the present conditions of each of the cars, including the car location and direction of travel and the number of stops which the car will make between its present position and the position of the call, and assigning such call, absolutely, to the car which is estimated, in the first examination of each registered hall call, to be able to reach the floor landing of the hall call the quickest, based upon a scheme of operation which considers only approximate travel time and number of stops, along with car travel direction and car location. Such system, however, has a basic disadvantage that the conditions upon which the call has been made may change radically long before the call is answered by the car to which it has been assigned. For instance, a deliveryman may prop the door of the car open while he unloads packages, thus unduly delaying the car; or, at one of its in-between stops, the car may pick up an excessive number of passengers, who register a large number of hall calls that were not considered during the original assignment. In such case, as in the case of zone-controlled group systems, it is necessary to provide several levels of backup modes of operation. For instance, a first level backup mode may reenter the call for reassignment if it is not answered within a first predetermined time interval. And if that fails, and the call is still unanswered after a second, longer predetermined interval, then an absolute priority assignment of a car to answer that call may be required. Or, assigned calls may be reevaluated with respect to reassignment to other cars; but the comparison is made with respect to a previously determined response time for the first car to which the call was assigned. Such response time does not reflect current conditions appertaining to the previous car.In either of these mode of operation, the facts that the primary mode of operation (zone or call assignment) is upset by anything other than an ideal pattern of traffic flow, necessarily requiring the backup modes, the change of the system from operating in the primary mode to backup mode resulting in further disruption, and further requirement for an additional backup mode, indicate that such systems fail to provide the desired service.The zone type of operation does not take into account conditions within the building at any time. The assignment of calls-to-cars mode which has been known in the prior art assumes that it can anticipate conditions, assign calls on that basis, but is incapable of truly responding to actual conditions of the building insofar as assigning calls to cars is concerned. And, both types of systems are non-dynamic until something goes wrong (undue delay in responding to a call) and then shift into other non-dynamic modes, which still do not take into account the actual, current conditions in the building, but respond in a reactionary sort of a way to a condition which is deemed to be exceptional and unacceptable with respect to the principal mode of operation, thus causing still further disruption.Both of the types of systems described hereinbefore are based upon the relationship between a registered call and a car, be that relationship an estimated time for response or a zone within which each is located. In neither of these cases are the actual current conditions of the system continuously reevaluated with respect to all unanswered hall calls.DISCLOSURE OF INVENTIONOjbects of the present invention include provision of an elevator control system in which all unanswered hall calls are assigned to cars on a current, dynamic basis, which takes into account actual, current conditions of the system.According to the present invention, all unanswered hall calls registered at a plurality of landings in a multi-elevator system are repetitively assigned to cars on a cyclic basis recurring several times per second on the basis of conditions of each car relative to each such unanswered hall call, including the floor landing and direction of the unanswered hall call under consideration and including service to be performed by each car in advance of its ability to service the hall call under consideration, as indicated within each cycle in which such call is assigned to any car; after making the assignment of any hall call in any cycle, the assignment of such hall call made to any car in a cycle next preceding such cycle is removed from such car if the call is assigned to a different car during such cycle; at the end of each cycle, a stop command is issued to any car to which the committable floor position coincides with the landing of a hall call assigned to it.In accordance with other aspects of the present invention, in each cycle of assigning calls to cars based upon conditions of the car relative to the call in question, preference is given to a car to which the call was assigned in a next preceding cycle; the preference may be based upon a weighted factor, when call assignments are made on the basis of weighted factors; if a weighted perference factor is employed in practicing the invention, the weighted preference factor may have a value on the same order of magnitude as it takes for an elevator to service from one to ten call landings, or it may be based on a reasonable time for a call to be unanswerable before desiring reassignment, or it may relate to a delay in servicing said call on the order of some part of a minute.The present invention provides for assignment of calls to cars based upon current information, at a rate of updating which is serveral times faster than the rate at which an elevator car may pass a landing at high speed; the conditions considered in assigning the calls to the cars are current, being updated in every cycle; the assignment of a call to a car is based upon the best assignment possible, in any cycle, which recur several times per second, thereby ensuring that as conditions change, the assignment may also change, if desirable, to provide proper service to the call while at the same maintaining other factors of overall system response. Provision of preference for a call assigned to a car to be reassigned to the same car permits control over race conditions so that cars are not unnecessarily started nor alternatively having a hall call assigned to them, which only one ultimately will answer. The invention provides, for the first time, a total capability for rapidly updating hall call assignments without any of the adverse effects which would otherwise be created.The foregoing and other objects, features and advantages of the present invention will become more apparent in the light of the following detailed description of an exemplary embodiment thereof, as illustrated in the accompanying drawing.

    Abstract translation: 电梯控制系统采用基于微处理器的组控制器,其与电梯系统的轿厢进行通信以确定轿厢的状况,并且响应在由轿厢服务的建筑物中的多个着陆处登记的门厅呼叫, 组控制器,以每秒重复数次的循环为基础,根据汽车向组控制器提供的信息,在每个周期内将每个未应答的门厅呼叫分配给被认为最适合于响应该呼叫的汽车 操作周期。 在呼叫分配给除了先前已经被分配给呼叫的汽车之外的汽车的任何循环中,对前一辆汽车的呼叫分配无效。 在每个周期结束时,任何指示其提交位置与已分配给其的门厅呼叫的底线一致的任何车将接收停止命令。 在拨打汽车的电话中,优先考虑以前有电话的任何车,尽管偏好是相对的,而不是绝对的。 公开了示例性的电梯装置,信号处理装置和逻辑流程图,以说明在连续更新的基础上分配对汽车的呼叫的具体方式,并且说明可以实践本发明的环境。

    ADAPTIVE SPLIT GROUP ELEVATOR OPERATION
    58.
    发明申请

    公开(公告)号:US20190062102A1

    公开(公告)日:2019-02-28

    申请号:US15691373

    申请日:2017-08-30

    Inventor: Paul A. Simcik

    Abstract: Embodiments herein relate to an elevator system of a facility with multiple floors. The elevator system can comprise elevator cars and an elevator controller. The elevator controller includes a memory and a processor. The memory stores computer program instructions executable by the processor to cause the elevator system to determine a current utilization of the elevator system, automatically activate an adaptive split group operation on a per floor basis when the current utilization of the elevator system is greater than a threshold utilization of the elevator system, and dispatch the elevator cars under the adaptive split group operation in accordance with elevator calls.

    CONTROL METHOD FOR AN ELEVATOR CONTROL SYSTEM

    公开(公告)号:US20180257906A1

    公开(公告)日:2018-09-13

    申请号:US15975416

    申请日:2018-05-09

    CPC classification number: B66B1/2458 B66B2201/104 B66B2201/302 B66B2201/403

    Abstract: An elevator control method for an elevator system including cars movable in an elevator shaft of a building the building being dividable into serving sectors each serving sector including at least one floor to be served by a car, and a recording device for recording car usage data, the recording device being dedicated to the cars, wherein the recording device forwards the car usage data to an elevator controller receiving the car usage data for creating car-logbook-data. The method of division of the serving sectors is decided on evaluation-analysis of the car-logbook-data by gathering and storing the car usage data over a period of time into a memory of the elevator controller and allocating a serving sector in dependency of the evaluation-analysis of the car usage data respectively.

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