Method for public area layout and facility configuration based on station boarding and alighting amount

By classifying and optimizing facilities based on station passenger volume, the problem of high vacancy rates in public areas of subway stations has been solved, and station construction and operation costs have been reduced.

CN119037510BActive Publication Date: 2025-11-11BEIJING URBAN CONSTRUCTION DESIGN & DEVELOPMENT GROUP CO LIMITED +1
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Patent Information

Application Number
CN202411100746.X
Authority / Receiving Office
CN · China
Patent Type
Patents(China)
Current Assignee / Owner
Filing Date
2024-08-12
Publication Date
2025-11-11
Estimated Expiration
2044-08-12

AI Technical Summary

Technical Problem

The high vacancy rate of public service facilities in subway stations, the high cost of station construction and operation management, and the failure of existing designs to effectively match passenger flow have led to redundant equipment configuration and waste of resources.

Method used

Stations are classified and categorized according to passenger volume, and the layout of public areas is designed in a refined manner. The configuration of facilities such as entrance and exit gates, security check equipment, and escalators is adjusted to achieve coordinated optimization of facilities and public area layout.

Benefits of technology

It reduced the vacancy rate of public area facilities, decreased the investment in station construction and the cost of operation and maintenance, and improved the efficiency of resource utilization.

✦ Generated by Eureka AI based on patent content.

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Abstract

This invention discloses a method for the layout and facility configuration of public areas based on station passenger volume, including the following steps: S1, determining station classification based on train formation quantity and peak hour passenger volume, and calculating the overall layout of the public area and column span layout of a double-level island station; S2, determining the station platform width; S3, determining the number of escalator / staircase groups; S4, determining the number of station entrance / exit turnstiles, the number of security inspection devices, and the number of cameras at escalator / staircase locations; S5, determining the number of entrance / exit turnstiles. This invention classifies stations according to peak hour passenger volume, determines the overall layout of the station's public area, column span dimensions, and layout based on the classification, and achieves refined design of the public area layout; it links the entrance / exit turnstiles, security inspection devices, and escalator / staircase cameras with the public area layout and the number of escalator / staircase groups to reduce the vacancy rate of public area facilities, and reduce station engineering investment and management and maintenance costs during operation.
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Description

Technical Field

[0001] This invention belongs to the field of transportation technology, and more specifically, relates to a method for the layout and facility configuration of public areas based on station passenger volume. Background Technology

[0002] In recent years, subway development has been dominated by an extensive development model, which focuses on scale expansion rather than efficiency improvement. This model can rapidly expand the coverage of the subway network and increase transport capacity. However, with the rapid expansion of urban rail transit networks, the construction and operating costs of subways, as an important part of urban public transportation, are also increasing year by year.

[0003] Based on the economic benefit analysis of subway lines, the original extensive development model is no longer suitable for the construction needs of modern subway stations. Cost control throughout the station's life cycle and refined design control will be the future direction of station construction. Currently, there is no in-depth research, both domestically and internationally, on controlling station investment through refined design during the subway construction period. Standard subway stations uniformly use a platform width of 11m or 12m, and the standards for public area service facilities on platforms of the same width are also identical. This setup leads to high redundancy in equipment terminal configuration, far exceeding passenger needs. Furthermore, the calculation methods for the same equipment vary across regions, and the setting principles do not consider the interoperability between facilities. This results in a mismatch between station size, entrance and exit gates, security screening machines, escalators, etc., and passenger flow, leading to a high vacancy rate for public area service facilities. This not only increases engineering investment during the station construction period but also raises management and maintenance costs during the operation period. Summary of the Invention

[0004] To address the issues of high vacancy rates of public area service facilities and high station operation and management costs in existing subway stations, this invention provides a method for public area layout and facility configuration based on station passenger volume. The method classifies stations according to peak hour passenger volume and determines the overall layout of the public area for different station levels, including column span dimensions and layout, achieving refined design of the public area layout. Furthermore, it links the adjustment of facilities such as entrance and exit gates, security screening equipment, and escalator / staircase cameras with the public area layout and the number of escalator / staircase groups, thereby reducing the vacancy rate of public area facilities and lowering station engineering investment and management and maintenance costs during operation.

[0005] To address the aforementioned problems, according to a first aspect of the present invention, a method for public area layout and facility configuration based on station passenger volume is provided, comprising the following steps:

[0006] S1. Determine the station classification based on the number of train formations and the peak hour passenger volume of the station, and calculate the overall layout of the public area and the column span layout of the double-layer island station.

[0007] S2. Determine the width of the station platform based on the station classification determined in S1;

[0008] S3. Based on the station classification determined in S1, determine the number of escalator and staircase sets in the station's public area;

[0009] S4. Based on the number of escalator and staircase sets in the station's public area determined in S3, determine the number of station entrance and exit turnstile sets, the number of security inspection devices, and the number of cameras at escalator and staircase locations;

[0010] S5. Determine the number of entry and exit turnstiles based on the station's peak hour passenger volume and peak hour coefficient. The formula for calculating the number of entry turnstiles is as follows:

[0011]

[0012] Where: N e N represents the number of entrance gates, rounded up. j The maximum number of passengers entering the station during either the morning or evening peak hour is taken, in units of people per hour; K c V is the peak hour coefficient; e The capacity of the entrance gates is expressed in person / hour / channel.

[0013] The formula for calculating the number of exit gates is:

[0014]

[0015] Where: N x N represents the number of exit turnstiles, rounded up. c The number of passengers exiting the station during the morning or evening peak hour is the greater of the two values, expressed as passengers per hour; V x The capacity of the exit gates is expressed in units of people / hour / channel; K. c T is the peak hour coefficient; j The hourly headway for morning and evening rush hours, in minutes; T c Passenger clearance time, in minutes.

[0016] Preferably, step S1 specifically includes the following steps:

[0017] S1-1. Standard station classification is determined based on the number of train formations and the peak hour passenger volume of the station. The train formations are 4A, 6A and 8A train types, and the station classification is: Level 1 station, Level 2 station and Level 3 station.

[0018] S1-2, Calculate the column span layout of the public area of ​​a double-layer island station under a 4A train formation;

[0019] S1-3, Calculate the column span layout of the public area of ​​a double-layer island station under a 6A trainset;

[0020] S1-4: Calculate the column span layout of the public area of ​​a double-deck island platform station under an 8A train formation.

[0021] Preferably, in S1-2, the calculation formula for the column span layout of the public area of ​​a double-layer island platform station under a 4A train formation is as follows:

[0022] (GZK)1=J*ZK1+

(J-2)+(N-1)

[0023] (GZK)2=(J-1)*ZK1+

(J-2)+(N-1)

[0024] In the formula: J is the station's classification number, which takes the values ​​1, 2, and 3; N is the number of train formations at the station, with N taking the value 4 in the 4A train formation; (GZK)1 represents the column span layout of the station's public area under the 4A train formation when the station is a Class I station; (GZK)2 represents the column span layout of the station's public area under the 4A train formation when the station is a Class II or Class III station; ZK1 is the column span value of the non-paid area of ​​the public area, which takes the value 10 or 12; ZK2 is the column span value of the paid area of ​​the public area, which takes the value 9 or 10.

[0025] Preferably, in S1-3, the calculation formula for the column span layout of the public area of ​​a double-layer island platform station under a 6A train formation is as follows:

[0026] (GZK)3=2*J*ZK 1-1 +(N / 2-1)*(ZK 2-1 +ZK 2-2 (J≦1)

[0027] (GZK)4=2*(J-1)*ZK 1-1 +N / 2*ZK 2-1 +(N / 2-1)*ZK 2-2 (J>1)

[0028] In the formula: J represents the station's classification number, taking values ​​of 1, 2, or 3; N represents the number of train formations at the station, with N being 6 in the 6A train formation; (GZK)3 represents the column and span layout of the station's public area for a Class I station using the 6A train formation; (GZK)4 represents the column and span layout of the station's public area for a Class II or Class III station using the 6A train formation; ZK 1-1 The span value for the column in the public area (non-paid area) is 8, 10, or 12; ZK 2-1 The column span value for the stair section in the paid public area is 9; ZK 2-2 The column span value for the stairwell area in the paid public area is 8 or 10.

[0029] Preferably, in S1-4, the calculation formula for the column span layout of the public area of ​​a double-layer island platform station under an 8A train formation is as follows:

[0030] (GZK)5=2*J*ZK 1-1 +(N / 2-1)*ZK 2-1 +N / 2*ZK 2-2 (J≦1)

[0031] (GZK)6=2*(J-1)*ZK 1-1 +N / 2*ZK 2-1 +

N-(J-1)*2

[0032] In the formula: J represents the station's classification number, taking values ​​of 1, 2, or 3; N represents the number of train formations at the station, with N being 8 in the 8A train formation; (GZK)5 represents the column and span layout of the station's public area for a Class I station using the 8A train formation; (GZK)6 represents the column and span layout of the station's public area for a Class II or Class III station using the 8A train formation; ZK 1-1 The span value for the column in the public area (non-paid area) is 8, 10, or 12; ZK 2-1 The column span value for the stair section in the paid public area is 9; ZK 2-2 The column span value for the stairwell area in the paid public area is 8 or 10.

[0033] Preferably, step S2 specifically includes the following steps:

[0034] S2-1. Determine the standard value of platform width according to station classification;

[0035] S2-2. Based on the influencing factors, revise the platform width to determine the actual value of the station platform width. The formula for calculating the actual value of the station platform width is as follows:

[0036] TKD=KDB+β

[0037] In the formula: TKD is the actual value of the station platform width; KDB is the standard value of the platform width for different station levels, which is 10.5m for Class I stations, 11m for Class II stations, and 12m for Class III stations; β is the revised value of the standard platform width, and the value of β ranges from 0.1 to 0.5.

[0038] Preferably, in step S3, the formula for calculating the number of escalator / staircase groups in the station's public area is:

[0039] LFT = N / 2 - 1 (J≦1)

[0040] LFT = N / 2 (J>1)

[0041] In the formula: LFT is the number of escalator sets in the station building, excluding the number of elevator points; N is the number of train formations, which can be 4, 6 or 8; J is the number of station levels, which can be 1, 2 or 3.

[0042] Preferably, step S4 specifically includes the following steps:

[0043] S4-1. Based on the number of escalator / staircase groups in the station's public area, determine the number and sets of entrance / exit turnstiles. The formula for calculating the number of entrance / exit turnstile groups is as follows:

[0044] ZJ = LFT (J≦1)

[0045] ZJ = LFT-1 (J>1)

[0046] In the formula: ZJ is the number of gate sets for entering and exiting the station; LFT is the number of escalator sets for the station, excluding the number of elevator locations; J is the number of station levels, with values ​​of 1, 2, and 3.

[0047] S4-2. Determine the number of security screening devices based on the number of escalators and staircases in the station's public area. The formula for calculating the number of security screening devices is as follows:

[0048] AJ = ZJ

[0049] In the formula: AJ represents the number of security inspection equipment sets at the station; ZJ represents the number of gate sets at the station entrance and exit.

[0050] S4-3. Determine the number of cameras at escalator / staircase locations based on the number of escalator / staircase groups in the station's public area. The formula for calculating the number of cameras at escalator / staircase locations is as follows:

[0051] SXT1 = LFT * 2

[0052] In the formula: SXT1 is the number of cameras at the escalator and stairwell locations; LFT is the number of escalator and stairwell groups in the station, excluding the number of elevator locations.

[0053] Preferably, step S5 specifically includes the following steps:

[0054] S5-1. Determine the hourly passenger flow during the morning and evening peak hours for entering and exiting the station, as well as the passenger flow intensity during peak hours.

[0055] S5-2. Determine the station's entry and exit gate capacity, peak hour train intervals, and passenger clearance times;

[0056] S5-3. Calculate the number of entry turnstiles and the number of exit turnstiles. The formula for calculating the number of entry turnstiles is as follows:

[0057]

[0058] Where: N e N represents the number of entrance gates, rounded up.j The maximum number of passengers entering the station during either the morning or evening peak hour is taken, in units of people per hour; K c V is the peak hour coefficient; e The capacity of the entrance gates is expressed in person / hour / channel.

[0059] The formula for calculating the number of exit gates is:

[0060]

[0061] Where: N x N represents the number of exit turnstiles, rounded up. c The number of passengers exiting the station during the morning or evening peak hours is the greater of the two values, expressed as passengers per hour; K c V is the peak hour coefficient; x The capacity of the exit gates is expressed in units of people / hour / channel; T j The hourly headway for morning and evening rush hours, in minutes; T c Passenger clearance time, in minutes.

[0062] Preferably, in S5-3,

[0063] The N j At non-transfer stations, the value is the maximum of the number of passengers boarding during the morning or evening peak hours. At transfer stations, the value is the number of passengers boarding during the maximum morning or evening peak hours minus the number of passengers boarding during the corresponding peak hour for transfers.

[0064] The N c At non-transfer stations, the value is the maximum of the number of passengers disembarking during either the morning or evening peak hour. At transfer stations, the value is the maximum number of passengers disembarking during the morning or evening peak hour minus the number of passengers transferring during the corresponding peak hour. K c This is the peak hour coefficient, with a value ranging from 1.1 to 1.4.

[0065] In summary, compared with the prior art, the above-described technical solutions conceived by this invention can achieve the following beneficial effects:

[0066] 1. The present invention provides a method for the layout and facility configuration of public areas based on station passenger volume. It classifies stations according to their peak hour passenger volume, determines the overall layout of the public areas of different station levels, and determines the column span dimensions and layout, thereby achieving a refined design of the public area layout.

[0067] 2. The station facility configuration method based on line passenger flow prediction of the present invention realizes the linkage adjustment of facilities such as entrance and exit gates, security inspection equipment, and escalator cameras with the layout of public areas and the number of escalator groups, thereby reducing the vacancy rate of public area facilities and reducing station engineering investment and management and maintenance costs during the operation period. Attached Figure Description

[0068] Figure 1 This is a flowchart of the method for public area layout and facility configuration based on station passenger volume according to the present invention;

[0069] Figure 2 This is a flowchart of the method for calculating the number of entry and exit gates according to the present invention. Detailed Implementation

[0070] To make the objectives, technical solutions, and advantages of this invention clearer, the invention will be further described in detail below with reference to the accompanying drawings and embodiments. It should be understood that the specific embodiments described herein are merely illustrative and not intended to limit the invention. Furthermore, the technical features involved in the various embodiments of this invention described below can be combined with each other as long as they do not conflict with each other.

[0071] This invention discloses a method for configuring station facilities based on passenger flow forecasting, which is... Figure 1 As shown, it includes the following steps:

[0072] S1. Determine the station classification based on the number of train formations and the peak hour passenger volume at the station, and calculate the overall layout of the public area and the column span layout of the double-level island platform station. This includes the following steps:

[0073] S1-1. Based on the number of train formations (4A, 6A, and 8A train types) and the peak hour passenger volume of the station, the overall layout of the public area is determined according to the standard specifications, including: the single-end or double-end entry and exit mode of the public area matching the passenger volume, the number of escalators and staircases, and the column span dimensions, etc., to determine the standard station classification, which is: Level 1 station, Level 2 station, and Level 3 station.

[0074] S1-2. Calculate the column span layout of the public area of ​​a double-deck island platform station under a 4A trainset. The calculation formula for the column span layout of the public area of ​​a double-deck island platform station under a 4A trainset is as follows:

[0075] (GZK)1=J*ZK1+

(J-2)+(N-1)

[0076] (GZK)2=(J-1)*ZK1+

(J-2)+(N-1)

[0077] In the formula: J is the station's classification number, taking values ​​of 1, 2, or 3; N is the number of train formations at the station, with N taking a value of 4 in the 4A train formation; (GZK)1 represents the column span layout of the station's public area under the 4A train formation when the station is a Class I station; (GZK)2 represents the column span layout of the station's public area under the 4A train formation when the station is a Class II or Class III station; ZK1 is the column span value of the non-paid area of ​​the public area, taking values ​​of 10 or 12, in meters; ZK2 is the column span value of the paid area of ​​the public area, taking values ​​of 9 or 10, in meters.

[0078] S1-3. Calculate the column span layout of the public area of ​​a double-deck island platform station under a 6A trainset. The calculation formula for the column span layout of the public area of ​​a double-deck island platform station under a 6A trainset is as follows:

[0079] (GZK)3=2*J*ZK 1-1 +(N / 2-1)*(ZK 2-1 +ZK 2-2 (J≦1)

[0080] (GZK)4=2*(J-1)*ZK 1-1 +N / 2*ZK 2-1 +(N / 2-1)*ZK 2-2 (J>1)

[0081] In the formula: J represents the station's classification number, taking values ​​of 1, 2, or 3; N represents the number of train formations at the station, with N being 6 in the 6A train formation; (GZK)3 represents the column and span layout of the station's public area for a Class I station using the 6A train formation; (GZK)4 represents the column and span layout of the station's public area for a Class II or Class III station using the 6A train formation; ZK 1-1 The span value for the column in the public area (non-paid area) is 8, 10, or 12; ZK 2-1 ZK represents the column span value for the staircase section in the paid public area, with a value of 9, in meters. 2-2 The column span value for the paid stairwell area in the public area is 8 or 10, and the unit is meters.

[0082] S1-4: Calculate the column span layout of the public area of ​​a double-deck island platform station under an 8A trainset. The calculation formula for the column span layout of the public area of ​​a double-deck island platform station under an 8A trainset is as follows:

[0083] (GZK)5=2*J*ZK 1-1 +(N / 2-1)*ZK 2-1 +N / 2*ZK 2-2 (J≦1)

[0084] (GZK)6=2*(J-1)*ZK 1-1 +N / 2*ZK 2-1 +

N-(J-1)*2

[0085] In the formula: J represents the station's classification number, taking values ​​of 1, 2, or 3; N represents the number of train formations at the station, with N being 8 in the 8A train formation; (GZK)5 represents the column and span layout of the station's public area for a Class I station using the 8A train formation; (GZK)6 represents the column and span layout of the station's public area for a Class II or Class III station using the 8A train formation; ZK 1-1 The span value for the column in the public area (non-paid area) is 8, 10, or 12; ZK 2-1 ZK represents the column span value for the staircase section in the paid public area, with a value of 9, in meters. 2-2 The column span value for the paid stairwell area in the public area is 8 or 10, and the unit is meters.

[0086] S2. Based on the station classification determined in S1, determine the width of the station platform, specifically including the following steps:

[0087] S2-1. Determine the standard value of platform width according to station classification;

[0088] S2-2. Based on the influencing factors, revise the platform width to determine the actual value of the station platform width. The formula for calculating the actual value of the station platform width is as follows:

[0089] TKD=KDB+β

[0090] In the formula: TKD is the actual value of the station platform width; KDB is the standard value of the platform width for different station levels, which is 10.5m for Class I stations, 11m for Class II stations, and 12m for Class III stations; β is the revised value of the standard platform width, which is the various factors that affect the value of the platform width, such as insufficient evacuation capacity or insufficient side platform width, etc. In the theoretical calculation, β is calculated and determined according to the relevant formula in the "Metro Design Code"; if the redundancy of the side platform width calculation is greater than 50%, it can be taken in the range of 0.1-0.5.

[0091] S3. Based on the station classification determined in S1, determine the number of escalator / staircase groups in the station's public area. The formula for calculating the number of escalator / staircase groups is as follows:

[0092] LFT = N / 2 - 1 (J≦1)

[0093] LFT = N / 2 (J>1)

[0094] In the formula: LFT is the number of escalator sets in the station building, excluding the number of elevator points; N is the number of train formations, which can be 4, 6 or 8; J is the number of station levels, which can be 1, 2 or 3.

[0095] S4. Based on the number of escalator and staircase sets in the station's public area determined in S3, determine the number of station entrance and exit turnstile sets, the number of security screening devices, and the number of cameras at escalator and staircase locations. This includes the following steps:

[0096] S4-1. Based on the number of escalator / staircase groups in the station's public area, determine the number and sets of entrance / exit turnstiles. The formula for calculating the number of entrance / exit turnstile groups is as follows:

[0097] ZJ = LFT (J≦1)

[0098] ZJ = LFT-1 (J>1)

[0099] In the formula: ZJ is the number of gates for entering and exiting the station; LFT is the number of escalators and stairs in the station, excluding the number of elevator points; J is the number of station levels, with values ​​of 1, 2, and 3.

[0100] S4-2. Determine the number of security screening devices based on the number of escalators and staircases in the station's public area. The formula for calculating the number of security screening devices is as follows:

[0101] AJ = ZJ

[0102] In the formula: AJ is the number of security inspection equipment groups at the station, and ZJ is the number of gate groups at the station entrance and exit.

[0103] S4-3. Determine the number of cameras at escalator / staircase locations based on the number of escalator / staircase groups in the station's public area. The formula for calculating the number of cameras at escalator / staircase locations is as follows:

[0104] SXT1 = LFT * 2

[0105] In the formula: SXT1 is the number of cameras at the escalator and stairwell locations; LFT is the number of escalator and stairwell groups in the station, excluding the number of elevator locations.

[0106] S5. Determine the number of entry and exit gates based on the station's peak hour passenger volume and peak hour coefficient. Figure 2 As shown, S5 specifically includes the following steps:

[0107] S5-1. Determine the passenger flow during the morning and evening peak hours and the passenger flow intensity during peak hours at the station: The passenger flow during the morning and evening peak hours is taken as the maximum value of the passenger flow during the morning and evening peak hours, and the passenger flow intensity during peak hours is determined by the peak hour coefficient K. c express.

[0108] S5-2. Determine the station's entry and exit gate capacity, peak hour train interval, and passenger clearance time: The entry and exit gate capacity is the maximum number of passengers that can pass through the gates per unit time; the peak hour train interval is equal to the peak period divided by the number of trains during the peak period; the passenger clearance time is provided by specific passenger flow reports.

[0109] S5-3. Calculate the number of entry turnstiles and the number of exit turnstiles. The formula for calculating the number of entry turnstiles is as follows:

[0110]

[0111] Where: N e N represents the number of entrance gates, rounded up. j The maximum number of passengers entering the station during either the morning or evening peak hour is taken, in units of people per hour; K c V is the peak hour coefficient; e The capacity of the entrance gates is expressed in person / hour / channel.

[0112] The formula for calculating the number of exit gates is:

[0113]

[0114] Where: N x N represents the number of exit turnstiles, rounded up. c The maximum number of passengers exiting the station during either the morning or evening peak hour is taken, in units of people per hour; K c V is the peak hour coefficient; x The capacity of the exit gates is expressed in units of people / hour / channel; T j The hourly headway for morning and evening rush hours, in minutes; T c Passenger clearance time, in minutes.

[0115] Where N j At non-transfer stations, the value is the maximum of the number of passengers boarding during the morning or evening peak hours. At transfer stations, the value is the number of passengers boarding during the maximum morning or evening peak hours minus the number of passengers boarding during the corresponding peak hour for transfers.

[0116] N c At non-transfer stations, the value is the maximum of the number of passengers disembarking during either the morning or evening peak hour. At transfer stations, the value is the maximum number of passengers disembarking during the morning or evening peak hour minus the number of passengers transferring during the corresponding peak hour. K c The peak hour coefficient refers to the ratio of the average passenger flow during the peak period to the average passenger flow during the peak hour within a unit of time, with a value ranging from 1.1 to 1.4.

[0117] This invention relates to a method for the layout and configuration of public areas based on station passenger volume. It classifies stations according to peak hour passenger volume and determines the overall layout of the public areas for different station levels, including column span dimensions and layout, to achieve refined design of the public area layout. Furthermore, it links the adjustment of facilities such as entrance and exit gates, security check equipment, and cameras at escalator locations with the layout of the public areas and the number of escalator groups, thereby reducing the vacancy rate of public area facilities and lowering the station's engineering investment and management and maintenance costs during operation.

[0118] Those skilled in the art will readily understand that the above description is merely a preferred embodiment of the present invention and is not intended to limit the present invention. Any modifications, equivalent substitutions, and improvements made within the spirit and principles of the present invention should be included within the scope of protection of the present invention.

Claims

1. A method for public area layout and facility configuration based on station passenger volume, characterized in that, Includes the following steps: S1. Determine the station classification based on the number of train formations and the peak hour passenger volume of the station, and calculate the overall layout of the public area and the column span layout of the double-layer island station. S2. Determine the width of the station platform based on the station classification determined in S1; S3. Based on the station classification determined in S1, determine the number of escalator and staircase sets in the station's public area; S4. Based on the number of escalator and staircase sets in the station's public area determined in S3, determine the number of station entrance and exit turnstile sets, the number of security inspection devices, and the number of cameras at escalator and staircase locations; S5. Determine the number of entry and exit turnstiles based on the station's peak hour passenger volume and peak hour coefficient. The formula for calculating the number of entry turnstiles is as follows: Where: N e N represents the number of entrance gates, rounded up. j The maximum number of passengers entering the station during either the morning or evening peak hour is taken, in units of people per hour; K c V is the peak hour coefficient; e The capacity of the entrance gates is expressed in person / hour / channel. The formula for calculating the number of exit gates is: Where: N x N represents the number of exit turnstiles, rounded up. c The number of passengers exiting the station during the morning or evening peak hour is the greater of the two values, expressed as passengers per hour; V x The capacity of the exit gates is expressed in units of people / hour / channel; K. c T is the peak hour coefficient; j The hourly headway for morning and evening rush hours, in minutes; T c Passenger clearance time, in minutes.

2. The method for public area layout and facility configuration based on station passenger volume according to claim 1, characterized in that, S1 specifically includes the following steps: S1-1. Standard station classification is determined based on the number of train formations and the peak hour passenger volume of the station. The train formations are 4A, 6A and 8A train types, and the station classification is: Level 1 station, Level 2 station and Level 3 station. S1-2, Calculate the column span layout of the public area of ​​a double-layer island station under a 4A train formation; S1-3, Calculate the column span layout of the public area of ​​a double-layer island station under a 6A trainset; S1-4: Calculate the column span layout of the public area of ​​a double-deck island platform station under an 8A train formation.

3. The method for public area layout and facility configuration based on station passenger volume according to claim 2, characterized in that, In S1-2, the calculation formula for the column span layout of the public area of ​​the double-layer island station under the 4A train formation is as follows: (GZK)1=J*ZK1+【(J-2)+(N-1)】*ZK2(J≦1) (GZK)2=(J-1)*ZK1+【(J-2)+(N-1)】*ZK2(J>1) In the formula: J is the station's classification number, which takes the values ​​1, 2, and 3; N is the number of train formations at the station, with N taking the value 4 in the 4A train formation; (GZK)1 represents the column span layout of the station's public area under the 4A train formation when the station is a Class I station; (GZK)2 represents the column span layout of the station's public area under the 4A train formation when the station is a Class II or Class III station; ZK1 is the column span value of the non-paid area of ​​the public area, which takes the value 10 or 12; ZK2 is the column span value of the paid area of ​​the public area, which takes the value 9 or 10.

4. The method for public area layout and facility configuration based on station passenger volume according to claim 2, characterized in that, In S1-3, the calculation formula for the column span layout of the public area of ​​the double-layer island station under the 6A train formation is as follows: (GZK)3=2*J*ZK 1-1 +(N / 2-1)*(ZK 2-1 +ZK 2-2 (J≦1)(GZK)4=2*(J-1)*ZK 1-1 +N / 2*ZK 2-1 +(N / 2-1)*ZK 2-2 (J>1) Where: J is the station's classification number, taking values ​​of 1, 2, or 3; N is the number of train formations at the station, with N being 6 for 6A train formations; (GZK)3 represents the column and span layout of the station's public area for a Class I station using 6A train formations; (GZK)4 represents the column and span layout of the station's public area for a Class II or Class III station using 6A train formations; ZK 1-1 The span value for the column in the public area (non-paid area) is 8, 10, or 12; ZK 2-1 The column span value for the stair section in the paid public area is 9; ZK 2-2 The column span value for the stairwell area in the paid public area is 8 or 10.

5. The method for public area layout and facility configuration based on station passenger volume according to claim 2, characterized in that, In S1-4, the calculation formula for the column span layout of the public area of ​​the double-layer island station under the 8A train formation is as follows: (GZK)5=2*J*ZK 1-1 +(N / 2-1)*ZK 2-1 +N / 2*ZK 2-2 (J≦1)(GZK)6=2*(J-1)*ZK 1-1 +N / 2*ZK 2-1 +【N-(J-1)*2】*ZK 2-2 (J>1) Where: J is the station's classification number, taking values ​​of 1, 2, or 3; N is the number of train formations at the station, with N being 8 for the 8A train formation; (GZK)5 represents the column and span layout of the station's public area for a Class I station using the 8A train formation; (GZK)6 represents the column and span layout of the station's public area for a Class II or Class III station using the 8A train formation; ZK 1-1 The span value for the column in the public area (non-paid area) is 8, 10, or 12; ZK 2-1 The column span value for the stair section in the paid public area is 9; ZK 2-2 The column span value for the stairwell area in the paid public area is 8 or 10.

6. The method for public area layout and facility configuration based on station passenger volume according to claim 1, characterized in that, S2 specifically includes the following steps: S2-1. Determine the standard value of platform width according to station classification; S2-2. Based on the influencing factors, revise the platform width to determine the actual value of the station platform width. The formula for calculating the actual value of the station platform width is as follows: TKD=KDB+β In the formula: TKD is the actual value of the station platform width; KDB is the standard value of the platform width for different station levels, which is 10.5m for Class I stations, 11m for Class II stations, and 12m for Class III stations; β is the revised value of the standard platform width, and the value of β ranges from 0.1 to 0.

5.

7. The method for public area layout and facility configuration based on station passenger volume according to claim 1, characterized in that, In S3, the formula for calculating the number of escalator / staircase groups in the station's public area is as follows: LFT = N / 2 - 1 (J ≦ 1) LFT = N / 2 (J>1) In the formula: LFT is the number of escalator sets in the station building, excluding the number of elevator points; N is the number of train formations, which can be 4, 6 or 8; J is the number of station levels, which can be 1, 2 or 3.

8. The method for public area layout and facility configuration based on station passenger volume according to claim 7, characterized in that, S4 specifically includes the following steps: S4-1. Based on the number of escalator / staircase groups in the station's public area, determine the number and sets of entrance / exit turnstiles. The formula for calculating the number of entrance / exit turnstile groups is as follows: ZJ = LFT(J≦1) ZJ = LFT-1 (J>1) In the formula: ZJ is the number of gate sets for entering and exiting the station; LFT is the number of escalator sets for the station, excluding the number of elevator locations; J is the number of station levels, with values ​​of 1, 2, and 3. S4-2. Determine the number of security screening devices based on the number of escalators and staircases in the station's public area. The formula for calculating the number of security screening devices is as follows: AJ = ZJ In the formula: AJ represents the number of security inspection equipment sets at the station; ZJ represents the number of gate sets at the station entrance and exit. S4-3. Determine the number of cameras at escalator / staircase locations based on the number of escalator / staircase groups in the station's public area. The formula for calculating the number of cameras at escalator / staircase locations is as follows: SXT1 = LFT * 2 In the formula: SXT1 is the number of cameras at the escalator and stairwell locations; LFT is the number of escalator and stairwell groups in the station, excluding the number of elevator locations.

9. The method for public area layout and facility configuration based on station passenger volume according to claim 8, characterized in that, S5 specifically includes the following steps: S5-1. Determine the hourly passenger flow during the morning and evening peak hours for entering and exiting the station, as well as the passenger flow intensity during peak hours. S5-2. Determine the station's entry and exit gate capacity, peak hour train intervals, and passenger clearance times; S5-3. Calculate the number of entry turnstiles and the number of exit turnstiles. The formula for calculating the number of entry turnstiles is as follows: Where: N e N represents the number of entrance gates, rounded up. j The maximum number of passengers entering the station during either the morning or evening peak hour is taken, in units of people per hour; K c V is the peak hour coefficient; e The capacity of the entrance gates is expressed in person / hour / channel. The formula for calculating the number of exit gates is: Where: N x N represents the number of exit turnstiles, rounded up. c The number of passengers exiting the station during the morning or evening peak hours is the greater of the two values, expressed as passengers per hour; K c V is the peak hour coefficient; x The capacity of the exit gates is expressed in units of people / hour / channel; T j The hourly headway for morning and evening rush hours, in minutes; T c Passenger clearance time, in minutes.

10. The method for public area layout and facility configuration based on station passenger volume according to claim 9, characterized in that, In S5-3, The N j At non-transfer stations, the value is the maximum of the number of passengers boarding during the morning or evening peak hours. At transfer stations, the value is the number of passengers boarding during the maximum morning or evening peak hours minus the number of passengers boarding during the corresponding peak hour for transfers. The N c At non-transfer stations, the value is the maximum of the number of passengers disembarking during either the morning or evening peak hour. At transfer stations, the value is the maximum number of passengers disembarking during the morning or evening peak hour minus the number of passengers transferring during the corresponding peak hour. K c This is the peak hour coefficient, with a value ranging from 1.1 to 1.4.

Citation Information

Patent Citations

  • Underground first-layer flat layer station entering side type station structure

    CN115787709A

  • Method for guiding passengers at entrances of subway station

    WO2022099612A1