TWI884761B - Intelligent elevator dispatching system - Google Patents

Abstract

The present invention provides an elevator equipment intelligent dispatching system for intelligently dispatching at least one elevator unit configured in a building, comprising a plurality of touch screens and a central control server. The touch screens are arranged in the inner and outer spaces of the elevator unit, the central control server is electrically connected to the touch screens, and is used to input the total number of floors and the number of elevators in the building, and comprises a click information collection unit for collecting the location information generated after the touch screen is clicked, wherein the location information includes the corresponding floor position of the elevator unit being clicked and the corresponding floor position of the elevator unit being clicked. The trigger time sequence collection unit and the telecommunication connection click information collection unit are used to collect the time information when the location information is clicked; the intelligent scheduling unit telecommunication connection click information collection unit and the trigger time sequence collection unit are used to perform the preset stop position of the elevator unit according to a scheduling rule after integrating the total number of floors and the number of elevators in the building, the location information and the time information. In this way, the shortcomings of the existing elevator system in the setting of the preset stop position and the lack of elevator mobility can be effectively solved, so as to improve the efficiency of elevator operation.

Description

Elevator Equipment Intelligent Dispatching System

This invention is related to the technical field of elevator equipment, especially an intelligent elevator equipment dispatching system that can automatically control the elevators that are not operated to run to the most appropriate floor position at different time periods in response to the actual use status of the elevator machine and the number of floors and elevators in the building itself.

Elevator systems can carry people and goods, which means they can move vertically, and they have been a great help to modern life. However, there are still some shortcomings that limit the performance of elevator systems in terms of user experience and performance. For example, the inflexible setting of the stopping floors makes it difficult for elevator systems to be applied to various time periods or special needs. For example, during peak usage, users' demands for floor stopping and movement of the elevator system may be completely different from those during non-peak usage, but existing elevator technology still cannot be flexibly adjusted to meet these applications. Secondly, the lack of mobility of elevators is another problem. Especially in high-rise buildings, users may face long waiting times, resulting in an inconvenient and poor user experience, which is specifically manifested in the elevator system's operating efficiency between floors not meeting expectations. In addition, in buildings with multiple elevators, it has always been difficult to set the priority of each elevator to achieve high performance. It is common for elevators to pass through certain floors without stopping, or for elevators to be always busy.

In view of the fact that the current elevator system still has many shortcomings in terms of design and setting, resulting in poor user experience and the system operation cannot have the best performance. Therefore, the invention team has conceived and proposed a more intelligent and efficient elevator equipment intelligent scheduling system, which uses a special solution to intelligently schedule the preset stop positions of uncontrolled elevators, thereby allowing the elevator system to have a good user experience and operability.

One of the purposes of the present invention is to provide an intelligent dispatching system for elevator equipment, which uses a touch screen as a source for collecting usage status, and controls the default stop position of elevator units that are not operated according to the scheduling rules after combining the usage status with the total number of floors in the building and the number of elevators, thereby effectively reducing the time users need to spend waiting for the elevator, and allowing the elevator to achieve optimal operation and eliminate unnecessary energy waste.

To achieve the above-mentioned purpose, the present invention proposes an elevator equipment intelligent scheduling system for intelligently scheduling at least one elevator unit configured in a building, comprising: a plurality of touch screens, which are respectively arranged in the inner and outer spaces of the elevator unit; and a central control server, which is electrically connected to the touch screens, and the central control server is used to input the total number of floors and the number of elevators in the building, and comprises: a click information collection unit, which is electronically connected to the touch screens and is used to collect a plurality of position information generated after the touch screens are clicked; wherein the position information The information includes the corresponding floor position of the elevator unit that is clicked and called, and the corresponding floor position to which the elevator unit is clicked; a trigger time sequence collection unit, which is connected to the click information collection unit for collecting multiple time information triggered by the click of the position information; and an intelligent scheduling unit, which is connected to the click information collection unit and the trigger time sequence collection unit. The intelligent scheduling unit performs the preset stop position of the elevator unit according to a scheduling rule after integrating the total number of floors and the number of elevators in the building, the position information and the time information.

Preferably, the dispatching rule is to dispatch the elevator units to stay at the corresponding floor position with the most clicked calls within a preset unit time in a 24-hour system when they are not controlled.

Preferably, when the total number of floors is an even number, the dispatch rule is to determine the number of floors by dividing the total number of floors by the total number of times the upper area and the lower area are clicked and called respectively within a preset unit time of a 24-hour system, and then the elevator unit is stopped within the preset unit time at one of the two middle floor positions of the upper area or the lower area when the total number of clicks is greater and exceeds a threshold value.

Preferably, when the total number of clicks on the upper area and the lower area does not exceed the threshold value, the elevator unit is stopped at one of the lowest floor position of the upper area or the highest floor position of the lower area for the preset unit time.

Preferably, when the total number of floors is an odd number, the dispatch rule is based on a middle floor of the total number of floors, and defines the area above the middle floor as an upper zone and the area below the middle floor as a lower zone; wherein within a preset unit time of a 24-hour system, when the total number of clicks on the middle floor is greater than half of the total number of clicks on the upper zone or half of the total number of clicks on the lower zone, the elevator unit stays at the middle floor position within the preset time unit; within the preset unit time , when the total number of clicks on the middle floor is not more than half of the total number of clicks on the upper area or half of the total number of clicks on the lower area, the elevator unit will stay at one of the two middle floors of the upper area or the lower area when the total number of clicks is larger and exceeds a threshold value within the preset unit time; when the total number of clicks on the upper area and the lower area does not exceed the threshold value within the preset unit time, the elevator unit will stay at the middle floor position within the preset unit time.

Preferably, the central control server further includes an elevator switch duration collection unit, which is telecommunication-connected to the intelligent scheduling unit, for collecting a plurality of first switch durations of each floor to which the elevator unit is clicked, and a plurality of second switch durations of each floor to which the elevator unit is clicked except for the highest and lowest floors; the number of clicks on each floor is weighted by estimating the number of users using the first switch durations and the second switch durations, so as to adjust the scheduling rules.

Preferably, the central control server further includes an elevator switch duration collection unit, which is telecommunication-connected to the intelligent scheduling unit for collecting a plurality of third switch durations of each floor to which the elevator unit is clicked, and the intelligent scheduling unit stores an automatic closing duration; the intelligent scheduling unit excludes at least one third switch duration equal to the automatic closing duration to estimate the number of users, and then weights the number of clicks on each floor, and adjusts the scheduling rules accordingly.

In summary, the elevator equipment intelligent scheduling system of the present invention uses the touch screen as a source for collecting usage status, and further collects information such as the call floor location triggered by the click, i.e. the floor location to be headed for, and the corresponding triggering time through the central control server, and controls the preset stop position of the elevator unit based on the information content combined with the total number of floors and the number of elevators in the building and the scheduling rules after integration. Accordingly, it is possible to accurately respond to the actual use status of the elevator unit, combine more considerations, especially the total number of floors and the number of elevators in the building itself, and automatically control the elevator units that are not operated to run to the most appropriate preset stop position under different time periods, thereby reducing the time required for users to wait for the elevator, and allowing the elevator to operate in an optimized manner, eliminating unnecessary power consumption, and having the advantages of energy saving and high-efficiency operation. Furthermore, the present invention also proposes many additional technical features, such as the setting of scheduling rules, the decision sequence of stops based on the odd and even differences in the number of floors, and the dynamic weighted adjustment of the scheduling rule content in response to the actual application status, as detailed in the examples listed in the above paragraphs.

1: Intelligent dispatching system for elevator equipment

10: Touch screen

11: Central control server

111: Click information collection unit

112: Trigger time sequence collection unit

113: Intelligent scheduling unit

114: Elevator switching time collection unit

8: Buildings

9: Elevator unit

A: Upper area

B: Lower area

Figure 1 is a schematic diagram of the system block of a preferred embodiment of the present invention.

Figure 2 is a schematic diagram of the application of the preferred embodiment of the present invention when the total number of floors of a building is an even number.

Figure 3 is a schematic diagram of the application of the preferred embodiment of the present invention when the total number of floors of a building is an odd number.

Figure 4 is a schematic diagram of a system block diagram of another embodiment of the preferred embodiment of the present invention.

In order to enable people with general knowledge in this field to clearly understand the content of the present invention, please refer to the following description with diagrams.

Please refer to Figures 1 and 2, which are schematic diagrams of the system of the preferred embodiment of the present invention and schematic diagrams of the application when the total number of floors of the building is an even number. The present invention discloses an intelligent dispatching system 1 for elevator equipment, which is used to intelligently dispatch at least one elevator unit 9 configured in a building 8, and includes a plurality of touch screens 10 and a central control server 11. The elevator unit 9 refers to an assembly of structures such as an elevator shaft, a guide rail, and a car, and is configured in the building 8 for users to take the mechanism to each floor. The touch screens 10 are arranged in the inner and outer spaces of the elevator unit 9. With the above-mentioned mechanism of the elevator unit 9 and the general knowledge of elevator use, it can be understood that what is described here means that the touch screens 10 are arranged in the car box and on each floor outside the elevator shaft for users to use. The central control server 11 is electrically connected to the touch screens 10. The central control server 11 is used to input the total number of floors and the number of elevators in the building 8, and includes a click information collection unit 111, a trigger time sequence collection unit 112 and an intelligent scheduling unit 113.

The click information collection unit 111 is connected to the touch screens 10 by telecommunication, and is used to collect a plurality of location information generated after the touch screens 10 are clicked and triggered, wherein the location information includes the corresponding floor position of the elevator unit 9 being clicked and called, and the corresponding floor position of the elevator unit 9 being clicked to go to. The trigger time sequence collection unit 112 is connected to the click information collection unit 111 by telecommunication, and is used to collect a plurality of time information when the location information is clicked and triggered. The intelligent scheduling unit 113 is connected to the click information collection unit 111 and the trigger time sequence collection unit 112 by telecommunication, and the intelligent scheduling unit 113 determines the preset stop position of the elevator unit 9 according to a scheduling rule integrating the total number of floors of the building, the number of elevators, the location information and the time information.

Accordingly, the elevator equipment intelligent scheduling system 1 collects usage information with high accuracy and efficiency, so that the elevator unit 9 can automatically follow the best operation plan according to the comprehensive information of the usage status of the installation site, such as time, flow of people, stop floors, total number of floors in the building and number of elevators, according to different usage requirements, and effectively improve the shortcomings of the elevator system in various aspects, and achieve the operation setting goal that the existing elevator system cannot dynamically adjust its preset stop position according to the usage status of the installation site. In other words, the elevator equipment intelligent scheduling system 1 can determine the preset stop position of the elevator unit according to the actual usage situation, so that the elevator unit 9 can automatically stay at the most appropriate floor position according to the scheduling rules collected and integrated by the central control server 11 each time it is called and goes there, thereby reducing the time users wait for the elevator, allowing users to have a better riding experience and achieving the advantage of efficient scheduling of elevator operation. Especially in buildings with a high number of floors and a high flow of people, it is more obvious that the elevator equipment intelligent scheduling system 1 can accurately adjust the unused elevator units to the standby floors according to the scheduling rules. At the same time, this can also reduce the excess energy consumption caused by the elevator unit 9 staying on an inappropriate floor most of the time and taking a long time to be called to a commonly used floor.

Preferably, the scheduling rule can schedule the elevator unit 9 to stay at the corresponding floor position with the most clicked calls within a preset unit time of 24 hours when it is not being controlled. An example of the scheduling rule is disclosed here. The intelligent scheduling unit 113 of the central control server 11 can automatically allow the elevator unit 9 to stay at the corresponding floor position with the most clicked calls during each time period when it is not in use according to the aforementioned scheduling rule. Since the floor with the most clicked calls indicates that the floor should have the most users, allowing the uncontrolled elevator unit 9 to stay at the floor within the preset unit time can make the operation of the elevator unit 9 have a better utilization efficiency. For example, according to the usage-related information collected by the touch screens 10, the first floor has the most clicked calls during the preset unit time from 8 to 9 in the morning. The intelligent scheduling unit 113 allows the elevator unit 9 to stay on the first floor when it is not controlled, so that most users in this time period can take it.

The following is another implementation of the scheduling rule. As shown in FIG. 2, in view of the difference in the total number of floors of the building 8, which will also affect the operation content of the scheduling rule, a better implementation state is disclosed when the total number of floors is an even number. When the total number of floors is an even number, the scheduling rule is determined based on the total number of floors divided by the total number of times the upper area A and the lower area B are clicked and called respectively within a preset unit time of the 24-hour system, and then the elevator unit 9 is stopped within the preset unit time at one of the two middle floor positions of the upper area A or the lower area B when the total number of clicks is larger and exceeds a threshold value. Accordingly, through a special floor division rule, the elevator unit 9 can be placed on standby according to the area with the higher actual usage, and the elevator unit 9 is parked at one of the two middle floors of the upper area A or the lower area B, so that the users on each floor of the upper area A or the lower area B can quickly call the elevator unit 9. For example, if the total number of floors of the building 8 is 12, the upper area A is defined as floors 7 to 12, the lower area B is defined as floors 1 to 6, and the preset unit time is 5 to 7 p.m., and the total number of clicks and calls to the upper area A is 20 times, the total number of clicks and calls to the lower area B is 8 times, and the threshold value is set to 10 times. At this time, the intelligent scheduling unit 113 makes the elevator unit 9 stay at the 9th or 10th floor in the upper area A according to the scheduling rule, so that users of the upper area A with more usage can effectively reduce the time waiting for the elevator to arrive, thereby improving the operation efficiency.

When the total number of clicks on the upper area A and the lower area B does not exceed the threshold value, the elevator unit 9 is stopped at the lowest floor position of the upper area A or the highest floor position of the lower area B for the preset unit time. Based on the above-mentioned scheduling rule characteristics, it is actually possible that the total number of times the upper area A and the lower area B are clicked and called within the preset unit time does not exceed the threshold value. At this time, it can be regarded that the usage of the upper area A and the lower area B should be similar. Therefore, the intelligent scheduling unit 113 can allow the elevator unit 9 to stay at the lowest floor position of the upper area A or the highest floor position of the lower area B, so that when the user of the upper area A or the lower area B calls the elevator unit 9 through the touch screens 10, the elevator unit 9 can quickly go to the designated floor, and the waiting time of the users of the upper area A or the lower area B can be effectively reduced. Continuing with the previous example, if the total number of clicks on the upper area A is 8 times and the total number of clicks on the lower area B is 5 times within the preset unit time, since the total number of clicks on the upper area A and the lower area B does not exceed the threshold value, the intelligent scheduling unit 113 will allow the elevator unit 9 to stay at the 6th or 7th floor.

When the total number of floors of the building 8 is an odd number, the present invention also proposes a corresponding preferred implementation mode. Please refer to Figure 3, which is a schematic diagram of the application of the preferred implementation mode of the present invention when the total number of floors of the building is an odd number. When the total number of floors is an odd number, the scheduling rule is based on a middle floor of the total number of floors, and defines the area above the middle floor as an upper area A and the area below the middle floor as a lower area B; wherein within a preset unit time of a 24-hour system, when the total number of click calls to the middle floor is greater than half of the total number of click calls to the upper area A or half of the total number of click calls to the lower area B, the elevator unit 9 stays at the middle floor position within the preset time unit; within the preset unit time, when the total number of click calls to the middle floor is not greater than the total number of click calls to the upper area A When the total number of clicks on the upper area A or the lower area B is less than half of the total number of clicks or half of the total number of clicks on the lower area B, the elevator unit 9 stays at one of the two middle floors of the upper area A or the lower area B, where the total number of clicks is greater and exceeds a threshold value, within the preset unit time; and when the total number of clicks on the middle floor is not more than half of the total number of clicks on the upper area A or half of the total number of clicks on the lower area B within the preset unit time, and the total number of clicks on the upper area A and the lower area B does not exceed the threshold value, the elevator unit 9 stays at the middle floor for the preset unit time. When a plurality of elevator units 9 are arranged in the building 8, the central control server 11 collects each of the elevator units 9 and performs scheduling for each of the elevator units 9. Through the above-mentioned scheduling rule characteristics, the elevator equipment intelligent scheduling system 1 can perform high-efficiency and preset stop position scheduling control in accordance with the actual use status for the elevator units 9 arranged in the building 8 with an odd number of total floors, and the scheduling rule specifically limits the total number of clicks and calls of the middle floor to be compared with half of the total number of clicks and calls of the upper area A or half of the total number of clicks and calls of the lower area B, so as to achieve operation scheduling that fits the actual application status. For example, assuming that the total number of floors is 15, with the middle floor, i.e. the 8th floor, as the basis, floors 9 to 15 are defined as the upper area A, floors 1 to 7 are defined as the lower area B, and 17 to 19 o'clock is the preset unit time. Within the preset unit time, the total number of times the middle floor is clicked and called is 10 times, the total number of times the upper area A is clicked and called is 6 times, and the total number of times the lower area B is clicked and called is 8 times, the intelligent scheduling unit 113 will stop the elevator unit 9 at the middle floor, i.e. the 8th floor, even if it is not controlled. In another case, if within the preset unit time the middle floor is clicked and called a total of 3 times, the upper area A is clicked and called a total of 6 times, the lower area B is clicked and called a total of 8 times, and the threshold value is 5 times, then the intelligent scheduling unit 113 will make the elevator unit 9 stay at one of the two middle floors of the lower area B, that is, the 3rd floor or the 4th floor. If the threshold value is 5 times, and the total number of clicks on the middle floor is 1 time, the total number of clicks on the upper area A is 4 times, and the total number of clicks on the lower area B is 3 times within the preset unit time, then the intelligent scheduling unit 113 will stop the elevator unit 9 at the middle floor, that is, the 8th floor, within the preset time unit.

Please refer to FIG. 4, which is a system schematic diagram of another embodiment of the preferred embodiment of the present invention. In addition, in order to more accurately estimate the usage status of the elevator unit 9, the central control server 11 further includes an elevator switch time collection unit 114, which is connected to the intelligent scheduling unit 113 to collect a plurality of first switch times of each floor when the elevator unit 9 is clicked and called, and to collect a plurality of second switch times of the elevator unit 9 when it is clicked to go to floors other than the highest and lowest floors; the first switch times and the second switch times are used to estimate the number of users and weight the number of clicks on each floor to adjust the scheduling rules. Through the elevator switch time collection unit 114, the elevator equipment intelligent scheduling system 1 can better estimate the number of users, and adjust the scheduling rules accordingly to make it conform to the actual usage status, so as to achieve more efficient scheduling operation. In view of the actual application situation, the longer the elevator switch time generally means that more people enter and exit, so the elevator switch time can be used as a powerful judgment information, and integrating them can obtain the scheduling rules that are more suitable for actual applications. It is worth mentioning that the elevator switch time collection unit 114 excludes the switch time of the highest and lowest floors when collecting the second switch time of the elevator unit 9 being clicked to go to the floor. The reason is that the switch time of the highest floor and the lowest floor is based on the opening time of the elevator door when all users leave the elevator in most cases, which does not mean that a large number of users take the elevator. Therefore, this information may lead to misjudgment in estimating the number of users and cause weighted calculation errors. Therefore, the present invention specifically excludes the switch time information of the highest floor and the lowest floor to accurately estimate the number of users of each floor.

In addition to estimating the number of users with the aforementioned information conditions to weight the number of clicks on each floor, another embodiment discloses another collection and weighting scheme. In another embodiment, the elevator switch time collection unit 114 is also connected to the intelligent scheduling unit 113 to collect a plurality of third switch times of each floor to which the elevator unit 9 is clicked, and the intelligent scheduling unit 113 stores an automatic closing time; the intelligent scheduling unit 113 excludes at least one of the third switch times that is greater than or equal to the automatic closing time to estimate the number of users, and then weights the number of clicks on each floor, and adjusts the scheduling rules accordingly. Here, the number of users is estimated by excluding the switch time information of each floor based on automatic closing and no one using it, so as to improve the accuracy of weighted calculation. Specifically, the excluded third switch time is greater than or equal to the automatic closing time. This information mostly represents that after all users in the elevator have left the elevator, no one has closed the elevator door. If this state is not excluded, it is easy to be recognized that the floor has a high number of users, resulting in misjudgment and affecting the fit between the scheduling rules and the actual application state. Therefore, in this implementation, this information is chosen to be excluded.

In summary, the elevator equipment intelligent dispatching system of the present invention uses the touch screen as a collection medium to capture the use status of the elevator unit, that is, the location information generated after the touch screen is triggered, such as the floor location of the elevator unit being clicked and the floor location of the elevator unit being clicked, as well as the time information when the location information is triggered, and then combines the total number of floors in the building, the number of elevators and the aforementioned location and time information to form a dispatching rule, so that the elevator unit determines the preset stop position according to the dispatching rule, so that the elevator can return to the appropriate stop position that is most suitable for the actual application status of the elevator unit when it is not being controlled, thereby achieving the advantage of high-efficiency dispatching of elevator operation. In this way, the elevator can truly operate in the best mode in response to the actual flow of people and the integration of time, and can also greatly improve the user experience, eliminating the bad experience of having to wait for the elevator for a long time in the past. Furthermore, the present invention also proposes many applicable examples regarding the scheduling rule. For example, the scheduling rule can be to schedule the elevator unit to stay at the corresponding floor position with the most clicks and calls within the preset time unit of the 24-hour system when it is not controlled, so that the elevator unit will stay on the floor with the most people when on standby, thereby improving the operating efficiency of the elevator unit in the entire building; or when When the number of buildings is even, the number of buildings is divided into two and defined as the upper area and the lower area. The total number of calls to the upper and lower areas in the preset time unit of the 24-hour system is used to determine the number of calls. Then the elevator unit is stopped in the preset time unit to the upper or lower area where the total number of clicks is greater and exceeds the threshold value. If both do not exceed the threshold value, the elevator unit is stopped. The elevator unit stops at the lowest floor of the upper area or the highest floor of the lower area; if the total number of floors is an odd number, the dispatching rules may have a priority judgment mechanism. For example, if the total number of clicks on the middle floor within the preset unit time is greater than half of the total number of clicks on the upper area or the lower area, the elevator unit will stop at the middle floor within the preset unit time. If it does not meet the above conditions, In the first step, the elevator unit is made to stay in the upper or lower area where the number of clicks is larger and exceeds the threshold value. If one of the two middle floor positions still does not meet the state, that is, the number of clicks does not exceed the threshold value, the elevator unit is made to stay in the middle floor position. Based on this, the floor position where the elevator unit should be on standby can be further divided, and the elevator user groups of the building can be divided more finely. In addition, in order to make the generation of scheduling rules more accurate and in line with the actual elevator usage status, the first switching time of each floor where the elevator unit is clicked and the second switching time when the elevator unit is clicked to go to floors other than the highest and lowest floors can be collected, and the number of clicks on each floor can be weighted by estimating the number of users using the two switching times; or the third switching time of each floor where the elevator unit is clicked can be added and compared with the automatic closing time to exclude the third switching time that is greater than or equal to the automatic closing time. In this way, the collected information can be more accurate and combined with the intelligent prediction function to dynamically adjust the scheduling rules, thereby improving the control accuracy of the elevator operation and allowing the elevator to have better operating efficiency performance. More specifically, the present invention has a certain system context. It first uses the touch screen as a medium for collecting usage status, and further analyzes the collected information, including the location information after the touch screen is clicked, the time information when each location information is clicked, and the total number of floors and the number of elevators in the building where the elevator is installed. After integration, the various aspects are formed into a scheduling rule so that the elevator can stay in the best standby position. In addition to clearly revealing the overall information collection process and using the information to intelligently generate scheduling rules and other technical features, the present invention also focuses on how to obtain the best preset stop position for the elevator, rather than the control means for determining how the elevator should operate after being called, which is completely different from the goals pursued by existing previous technologies.

However, the above is only a preferred embodiment of the present invention and is not intended to limit the scope of the present invention. Therefore, all equivalent changes and modifications made without departing from the scope of the present invention should be included in the patent scope of the present invention. In addition, the modules and components described in the present invention are all implemented through hardware or software assisted by hardware. For example, the definitions of the touch screen 10, the central control server 11 and its click information collection unit 111, the trigger time sequence collection unit 112, the intelligent scheduling unit 113 and the elevator switch time collection unit 114 are essentially the integration of various hardware devices such as CPU, microprocessor, memory or signal transmitter, and the technical features that can be implemented with the assistance of software programs are described together.

1: Intelligent dispatching system for elevator equipment

10: Touch screen

11: Central control server

111: Click information collection unit

112: Trigger time sequence collection unit

113: Intelligent scheduling unit

Claims (5)

An intelligent dispatching system for elevator equipment is used to perform intelligent dispatching for at least one elevator unit configured in a building, comprising: A plurality of touch screens, which are respectively arranged in the inner and outer spaces of the elevator unit; and A central control server, which is electrically connected to the touch screens and is used to input the total number of floors and the number of elevators in the building, comprising: A click information collection unit, which is electronically connected to the touch screens and is used to collect a plurality of location information generated after the touch screens are clicked; wherein the location information includes the corresponding floor position of the elevator unit being clicked and the corresponding floor position of the elevator unit being clicked to go to; A trigger time sequence collection unit, which is connected to the click information collection unit by telecommunication, for collecting multiple time information triggered by clicking on the location information; and An intelligent scheduling unit, which is connected to the click information collection unit and the trigger time sequence collection unit by telecommunication, and the intelligent scheduling unit performs the preset stop position of the elevator unit according to a scheduling rule after integrating the total number of floors and the number of elevators in the building, the location information and the time information; Among them, when the total number of floors is an even number, the dispatch rule is to determine the number based on the total number of floors divided by the total number of times the upper area and the lower area are clicked and called respectively within a preset unit time of the 24-hour system, and then the elevator unit will stay in the preset unit time to one of the two middle floor positions of the upper area or the lower area when the total number of clicks is larger and exceeds a threshold value. As described in claim 1, the intelligent scheduling system for elevator equipment, wherein when the total number of clicks on the upper area and the lower area does not exceed the threshold value, the elevator unit is stopped at one of the lowest floor position of the upper area or the highest floor position of the lower area for the preset unit time. An intelligent dispatching system for elevator equipment is used to perform intelligent dispatching for at least one elevator unit configured in a building, comprising: A plurality of touch screens, which are respectively arranged in the inner and outer spaces of the elevator unit; and A central control server, which is electrically connected to the touch screens and is used to input the total number of floors and the number of elevators in the building, comprising: A click information collection unit, which is electronically connected to the touch screens and is used to collect a plurality of location information generated after the touch screens are clicked; wherein the location information includes the corresponding floor position of the elevator unit being clicked and the corresponding floor position of the elevator unit being clicked to go to; A trigger time sequence collection unit, which is connected to the click information collection unit by telecommunication, for collecting multiple time information triggered by clicking on the location information; and An intelligent scheduling unit, which is connected to the click information collection unit and the trigger time sequence collection unit by telecommunication, and the intelligent scheduling unit performs the preset stop position of the elevator unit according to a scheduling rule after integrating the total number of floors and the number of elevators in the building, the location information and the time information; Wherein, when the total number of floors is an odd number, the dispatch rule is based on a middle floor of the total number of floors, and defines the area above the middle floor as an upper area and the area below the middle floor as a lower area; wherein within a preset unit time of a 24-hour system, when the total number of times the middle floor is clicked and called is greater than half of the total number of times the upper area is clicked and called or half of the total number of times the lower area is clicked and called, the elevator unit stays at the middle floor position within the preset time unit; within the preset unit time , when the total number of clicks on the middle floor is not more than half of the total number of clicks on the upper area or half of the total number of clicks on the lower area, the elevator unit will stay at one of the two middle floors of the upper area or the lower area when the total number of clicks is larger and exceeds a threshold value within the preset unit time; when the total number of clicks on the upper area and the lower area does not exceed the threshold value within the preset unit time, the elevator unit will stay at the middle floor position within the preset unit time. An intelligent scheduling system for elevator equipment as described in any one of claim items 1 to 3, wherein the central control server further includes an elevator switch duration collection unit, which is telecommunication-connected to the intelligent scheduling unit for collecting a plurality of first switch durations of each floor to which the elevator unit is clicked, and a plurality of second switch durations of each floor to which the elevator unit is clicked except for the highest and lowest floors; the number of times each floor is clicked is weighted by using the first switch durations and the second switch durations to estimate the number of users, so as to adjust the scheduling rules. An intelligent scheduling system for elevator equipment as described in any one of claim items 1 to 3, wherein the central control server further includes an elevator switch duration collection unit, which is telecommunication-connected to the intelligent scheduling unit for collecting a plurality of third switch durations of each floor to which the elevator unit is clicked, and the intelligent scheduling unit stores an automatic closing duration; the intelligent scheduling unit excludes at least one of the third switch durations that is greater than or equal to the automatic closing duration to estimate the number of users, and then weights the number of clicks on each floor, and adjusts the scheduling rules accordingly.