Traffic control method, management platform, roadside equipment and system
A roadside equipment, management and control technology, applied in the field of intelligent transportation, can solve problems such as inability to effectively prevent and completely relieve traffic congestion.
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example 1
[0085] Example 1. Traffic optimization control method for local continuous road sections:
[0086] The first method corresponding to the local continuous section includes:
[0087] In the case where the traffic parameters of the local continuous road section meet the preset conditions, the upstream control road section speed limit value and the current limiting strategy that maximize the total traffic flow of the local continuous road section within the first time length are calculated;
[0088] Wherein, the preset conditions include at least one of the following:
[0089] The average speed is lower than a first standard threshold, the traffic density is greater than a second standard threshold, the speed variance is greater than a third standard threshold or the vehicle position variance is greater than a fourth standard threshold.
[0090] A roadside device is erected every 0.5-1km along the road extension, and the sensing range of the roadside device is the road section co...
example 2
[0102] Example 2. Traffic optimization control method for local bottleneck sections:
[0103] The local bottleneck road section includes a control road section and a bottleneck road section; the control road section is an adjacent upstream road section of the bottleneck road section, and its traffic capacity is greater than that of the bottleneck road section. For example, the local bottleneck section can be as follows Figure 6 As shown, wherein, road section 1 can be a control road section, road section 2 can be a bottleneck road section, the number of lanes of road section 2 is less than road section 1, that is, the traffic capacity of road section 1 is greater than that of road section 2.
[0104] The second method corresponding to the local bottleneck section includes:
[0105] The roadside equipment obtains the traffic parameters of the bottleneck section and its upstream control section;
[0106] When the traffic parameter represents that the traffic flow of the upstr...
example 4
[0125] Example 4. Optimal control method for a single outlet diversion area:
[0126] For single outlet diversion area, see Figure 9 In the schematic diagram of the scene shown, road section 1 is an upstream road section, road section 2 is a diversion area, road section 3 is an exit ramp, and road section 4 is a downstream road section.
[0127] Correspondingly, the fourth method corresponding to the single outlet diversion area includes:
[0128] The roadside equipment obtains the traffic parameters of the diversion area, and determines the exit flow ratio based on the traffic parameters;
[0129] Calculate the speed and entrance traffic flow of the upstream section that can maximize the sum of the diversion area, the upstream control section and the input traffic flow.
[0130] Wherein, the calculation can make the diversion area, the upstream control road section and the input traffic flow and the maximum speed of the upstream road section and the entrance traffic flow c...
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