Multi-dimensional control method and system for urban and rural water supply

Abstract

The invention discloses a multi-dimensional control method and system for urban and rural water supply, and the method comprises the steps: constructing a dynamic interaction system according to a shunting node and a water supply node, thereby constructing a dynamic interaction system in a mainstream-tributary combined waterway in a tributary, carrying out the dynamic management and control of the shunting node and the water supply node, and meanwhile, in the dynamic interaction system, carrying out the multi-dimensional control of the urban and rural water supply. Collecting water flow parameters in the main flow-branch flow combined waterway, and defining a water flow state corresponding to the main flow-branch flow combined waterway according to the water flow parameters; the method comprises the following steps: collecting weather parameters, defining a rainwater state, a related rainwater state and a water flow state according to the weather parameters, and triggering a water supply mode in a main flow-branch combined waterway based on the rainwater state and the water flow state, so as to perform multi-dimensional control aiming at the rainwater state and the water flow state, and clearly determining the water supply mode under multiple dimensions; the automatic regulation and control of the main flow-branch flow combined water paths and the cooperative regulation and control among the main flow-branch flow combined water paths are realized.

Description

Technical Field

[0001] The present invention relates to the technical field of multi-dimensional assessment systems in a dynamic environment, and in particular to a multi-dimensional control method and system for urban and rural water supply. Background Art

[0002] With the development of science and technology, urban and rural water supply scenarios are applied in our lives and as application scenarios of urban and rural water supply, at this time, unified management and control are carried out for multiple mainstreams and multiple tributaries, and a single-dimensional control method is used to control the state of the mainstream or tributary. The water supply mode is not clarified in multiple dimensions, and the autonomous regulation of the combined waterway of the mainstream and tributaries cannot be achieved. Summary of the invention

[0003] The purpose of the present invention is to overcome the shortcomings of the prior art. The present invention provides a multi-dimensional control method and system for urban and rural water supply. In the urban and rural water supply scenario, the urban and rural water supply center is located, and an urban and rural water supply route map is constructed along the traversal of the urban and rural water supply center; multiple main streams and multiple tributaries are divided according to the urban and rural water supply route map, and a combined waterway of the main stream and tributaries is constructed based on the multiple main streams and multiple tributaries; based on the combined waterway of the main stream and tributaries constructed by the tributaries, diversion nodes and water supply nodes are defined, and a dynamic interaction system is constructed according to the diversion nodes and water supply nodes, so as to construct a dynamic interaction system in the combined waterway of the main stream and tributaries constructed by the tributaries, and dynamically control the diversion nodes and water supply nodes. At the same time, in the dynamic interactive system, the water flow parameters in the combined waterway of the mainstream and tributaries are collected, and the water flow state corresponding to the combined waterway of the mainstream and tributaries is defined according to the water flow parameters; the weather parameters are collected, and the rain state is defined according to the weather parameters, the rain state and the water flow state are associated, and the water supply mode in the combined waterway of the mainstream and tributaries is triggered based on the rain state and the water flow state, so as to control the rain state and the water flow state in multiple dimensions, and clarify the water supply mode in multiple dimensions, realize the autonomous regulation of the combined waterway of the mainstream and tributaries, and the coordinated regulation between the combined waterways of each mainstream and tributaries, so as to maintain the dynamic stability of the combined waterways of multiple mainstreams and tributaries.

[0004] In order to solve the above technical problems, an embodiment of the present invention provides a multi-dimensional control method for urban and rural water supply, which is applied to a multi-dimensional control scenario of urban and rural water supply; The multi-dimensional control method for urban and rural water supply comprises: In the urban and rural water supply scenario, locate the urban and rural water supply hubs, and build an urban and rural water supply route map along the traversal of the urban and rural water supply hubs; Divide multiple main streams and multiple tributaries according to the urban and rural water supply route map, and construct a combined waterway of the main stream and tributaries based on the multiple main streams and multiple tributaries; Based on the tributaries, the combined waterway of the mainstream and tributaries is constructed to define the diversion nodes and water supply nodes, and a dynamic interactive system is constructed according to the diversion nodes and water supply nodes; In the dynamic interactive system, the water flow parameters in the combined waterway of the mainstream and the tributary are collected, and the water flow state corresponding to the combined waterway of the mainstream and the tributary is defined according to the water flow parameters; Collect weather parameters, define rain status according to the weather parameters, associate rain status and water flow status, and trigger the water supply mode in the combined waterway of mainstream and tributary based on the rain status and water flow status; In this water supply mode, the water flow states of the four adjacent main stream-tributary combined waterways are dynamically monitored, and the dynamic interaction of the four main stream-tributary combined waterways is triggered based on the four water flow states to maintain the dynamic stability of the multiple main stream-tributary combined waterways.

[0005] Optionally, in the urban and rural water supply scenario, locating the urban and rural water supply hub, and constructing an urban and rural water supply route map along the traversal of the urban and rural water supply hub, includes: In the urban and rural water supply scene, an urban and rural water supply bird's-eye view is defined based on the shooting of the urban and rural water supply scene; Marking the urban and rural water supply hubs based on the urban and rural water supply bird's-eye view, and locating the urban and rural water supply hubs in the urban and rural water supply bird's-eye view; Traverse outward along the urban and rural water supply hub, and define the traversal status and traversal route of the urban and rural water supply hub; An urban and rural water supply route map is constructed based on the traversal status and traversal route of the urban and rural water supply hub. At this time, the traversal route of the urban and rural water supply hub is marked in the urban and rural water supply route map, and the branching of the traversal route of the urban and rural water supply hub is defined. The mainstream mark and tributary mark in the urban and rural water supply route map are defined according to the branching of the traversal route.

[0006] Optionally, dividing a plurality of main streams and a plurality of tributaries according to the urban and rural water supply route map, and constructing a main stream-tributary combined waterway based on the plurality of main streams and the plurality of tributaries, comprises: Define the roadmap for urban and rural water supply; Present mainstream and tributary marks according to the urban and rural water supply route map; Divide multiple main streams and multiple tributaries based on urban and rural water supply route maps, main stream marks and tributary marks; Freeze multiple main streams and multiple tributaries; Correlate multiple main streams and multiple tributaries, and define the correlation coefficient between the main stream and the tributaries; According to the mainstream-tributary correlation coefficient, the mainstream constructs a set of mainstreams and multiple tributaries; A combined waterway of the mainstream and tributaries is constructed based on the collection of the mainstream and multiple tributaries. At this time, the length of the mainstream and the length of the tributaries are defined, and the length ratio is defined based on the comparison between the length of the mainstream and the length of the tributaries. The combined state of the mainstream and the corresponding tributaries is defined according to the length ratio to limit the combined waterway of the mainstream and tributaries, and the waterway interaction effect between the mainstream and the tributaries is managed and controlled based on the length ratio.

[0007] Optionally, the combined waterway of the mainstream and the tributaries is constructed based on the tributaries to define the diversion nodes and the water supply nodes, and a dynamic interactive system is constructed according to the diversion nodes and the water supply nodes, including: Define the combined waterway of mainstream and tributaries; Traverse the combined waterway of the mainstream and tributaries, and mark the water supply marks and diversion marks; Match the corresponding diversion node based on the diversion mark, and at the same time, match the corresponding water supply node based on the water supply mark; Fixed-grid diversion nodes and water supply nodes; Collect the water flow status matched by the diversion node and the water flow status matched by the water supply node; State interaction is performed according to the water flow state matched by the diversion node and the water flow state matched by the water supply node, and a state balance relationship is established based on the water flow state matched by the diversion node and the water flow state matched by the water supply node. At the same time, a dynamic interaction system is established based on the diversion node and the water supply node.

[0008] Optionally, in the dynamic interactive system, collecting water flow parameters in the combined waterway of the mainstream and tributaries, and defining the water flow state corresponding to the combined waterway of the mainstream and tributaries according to the water flow parameters, includes: In a dynamic interactive system, traverse the combined waterway of mainstream and tributaries; Trigger parameter collection based on the combined waterway of mainstream and tributaries, and collect water flow parameters in the combined waterway of mainstream and tributaries; Collect the branching level in the combined waterway of the mainstream and tributaries, and match the corresponding water flow parameters along the branching level; Construct a water flow parameter set based on matching corresponding water flow parameters at multiple branch levels; Associating a set of water flow parameters and a water flow state table; The water flow state corresponding to the combined waterway of the mainstream and tributary is defined based on the water flow parameter set and the water flow state table.

[0009] Optionally, the collecting of weather parameters, defining a rain state according to the weather parameters, associating the rain state with a water flow state, and triggering a water supply mode in a combined mainstream-tributary waterway based on the rain state and the water flow state, includes: Collect weather parameters; Associating weather parameters, current time, and wind force level, and defining rain state based on the weather parameters, current time, and wind force level; Freeze the rain state and water flow state, and associate the rain state and water flow state; Matching the combined waterways of the mainstream and tributaries based on the flow state; The states of multiple positions are marked in the combined waterway of the mainstream and tributaries, and the water flow states corresponding to the multiple positions are frozen.

[0010] Optionally, the collecting of weather parameters, defining a rain state according to the weather parameters, associating the rain state with a water flow state, and triggering a water supply mode in a combined mainstream-tributary waterway based on the rain state and the water flow state, further includes: Based on the water flow status and rainwater status corresponding to multiple locations, the water supply mode in the combined waterway of the mainstream and tributaries is triggered, and the water surface control is performed on the mainstream and multiple tributaries in the combined waterway water supply mode of the mainstream and tributaries; Based on the terrain parameters corresponding to multiple tributaries and the current water surface, the interaction status between the mainstream and tributaries is triggered to control the water surface stability of each tributary.

[0011] Optionally, in the water supply mode, the water flow states of four adjacent main stream-tributary combined waterways are dynamically monitored, and based on the four water flow states, the dynamic interaction of the four main stream-tributary combined waterways is triggered to maintain the dynamic stability of the multiple main stream-tributary combined waterways, including: In this water supply mode, the water flow status of the combined waterway of four adjacent main streams and tributaries is dynamically monitored; Dynamically control the four water flow states; The dynamic interaction of four main stream-tributary combined waterways is triggered based on four flow states; Defines the interaction state of the combined waterway of two adjacent mainstreams and tributaries.

[0012] Optionally, in the water supply mode, the water flow states of the four adjacent main stream-tributary combined waterways are dynamically monitored, and the dynamic interaction of the four main stream-tributary combined waterways is triggered based on the four water flow states to maintain the dynamic stability of the multiple main stream-tributary combined waterways, further comprising: Freeze multiple interaction states; Based on multiple interactive states, a state combination of multiple dimensions is constructed, and the current state of the combined waterway of four mainstreams and tributaries is presented in real time according to the state combination of multiple dimensions; Based on the current state of the combined waterway of the four main streams and tributaries, the dynamic interaction of the combined waterway of the four main streams and tributaries is triggered to maintain the dynamic stability of the combined waterway of the multiple main streams and tributaries.

[0013] In addition, an embodiment of the present invention further provides a multi-dimensional assessment system in a base dynamic environment, and the multi-dimensional assessment system in the base dynamic environment includes: The urban and rural water supply route map module is used to locate the urban and rural water supply hubs in the urban and rural water supply scenarios, and to construct an urban and rural water supply route map along the traversal of the urban and rural water supply hubs; A combined waterway module is used to divide multiple main streams and multiple tributaries according to the urban and rural water supply route map, and construct a combined waterway of the main stream and tributaries based on the multiple main streams and multiple tributaries; A dynamic interaction system module is used to define diversion nodes and water supply nodes based on the combined waterway of the mainstream and tributaries, and to build a dynamic interaction system based on the diversion nodes and water supply nodes; A water flow state module is used to collect water flow parameters in a combined waterway of a mainstream and a tributary in a dynamic interactive system, and define the water flow state corresponding to the combined waterway of the mainstream and a tributary according to the water flow parameters; The water supply mode module is used to collect weather parameters, define the rain state according to the weather parameters, associate the rain state and the water flow state, and trigger the water supply mode in the combined waterway of the mainstream and tributaries based on the rain state and the water flow state; The dynamic interaction module is used to dynamically monitor the water flow states of the four adjacent main stream-tributary combination waterways in the water supply mode, and trigger the dynamic interaction of the four main stream-tributary combination waterways based on the four water flow states to maintain the dynamic stability of the multiple main stream-tributary combination waterways.

[0014] In an embodiment of the present invention, through the method in the embodiment of the present invention, in the urban and rural water supply scenario, the urban and rural water supply center is located, and an urban and rural water supply route map is constructed along the traversal of the urban and rural water supply center; multiple main streams and multiple tributaries are divided according to the urban and rural water supply route map, and a combined waterway of the main stream and tributaries is constructed based on the multiple main streams and multiple tributaries; based on the combined waterway of the main stream and tributaries constructed by the tributaries, the diversion nodes and water supply nodes are defined, and a dynamic interaction system is constructed according to the diversion nodes and water supply nodes, so as to construct a dynamic interaction system in the combined waterway of the main stream and tributaries constructed by the tributaries, and the diversion nodes and water supply nodes are dynamically managed and controlled. At the same time, in the dynamic interaction system In the system, water flow parameters in the combined waterway of the mainstream and tributaries are collected, and the water flow state corresponding to the combined waterway of the mainstream and tributaries is defined according to the water flow parameters; weather parameters are collected, and the rain state is defined according to the weather parameters, the rain state and the water flow state are associated, and the water supply mode in the combined waterway of the mainstream and tributaries is triggered based on the rain state and the water flow state, so as to control the rain state and the water flow state in multiple dimensions, and clarify the water supply mode in multiple dimensions, realize the autonomous regulation of the combined waterway of the mainstream and tributaries, and the coordinated regulation among the combined waterways of each mainstream and tributaries, so as to maintain the dynamic stability of the combined waterways of multiple mainstreams and tributaries. BRIEF DESCRIPTION OF THE DRAWINGS

[0015] In order to more clearly illustrate the embodiments of the present invention or the technical solutions in the prior art, the drawings required for use in the embodiments or the description of the prior art will be briefly introduced below. Obviously, the drawings described below are only some embodiments of the present invention. For ordinary technicians in this field, other drawings can be obtained based on these drawings without paying creative work.

[0016] Figure 1 is a flow chart of a multi-dimensional control method for urban and rural water supply in an embodiment of the present invention; Figure 2 is a flow chart of S11 in the multi-dimensional control method for urban and rural water supply in an embodiment of the present invention; Figure 3 is a flow chart of S12 in the multi-dimensional control method for urban and rural water supply in an embodiment of the present invention; Figure 4 is a flow chart of S13 in the multi-dimensional control method for urban and rural water supply in an embodiment of the present invention; Figure 5 is a flow chart of S14 in the multi-dimensional control method for urban and rural water supply in an embodiment of the present invention; Figure 6 is a flow chart of S15 in the multi-dimensional control method for urban and rural water supply in an embodiment of the present invention; Figure 7 is a flow chart of S16 in the multi-dimensional control method for urban and rural water supply in an embodiment of the present invention; Figure 8 It is a schematic diagram of the structure composition of a multi-dimensional assessment system in a base dynamic environment in an embodiment of the present invention; Fig. 9 The figure is a hardware diagram of an electronic device according to an exemplary embodiment. DETAILED DESCRIPTION

[0017] The following will be combined with the drawings in the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention.

[0018] Method Example: See also Figures 1 to 9 , a multi-dimensional control method for urban and rural water supply, applied to the multi-dimensional control scenario of urban and rural water supply; the multi-dimensional control method for urban and rural water supply includes: Step S11: in the urban and rural water supply scenario, locate the urban and rural water supply hub, and construct an urban and rural water supply route map along the traversal of the urban and rural water supply hub; Step S12: dividing a plurality of main streams and a plurality of tributaries according to the urban and rural water supply route map, and constructing a combined waterway of the main stream and the tributaries based on the plurality of main streams and the plurality of tributaries; Step S13: constructing a combined waterway of the mainstream and the tributaries based on the tributaries to define the diversion nodes and the water supply nodes, and constructing a dynamic interactive system according to the diversion nodes and the water supply nodes; Step S14: in the dynamic interaction system, collecting water flow parameters in the combined waterway of the mainstream and the tributary, and defining the water flow state corresponding to the combined waterway of the mainstream and the tributary according to the water flow parameters; Step S15: collecting weather parameters, defining rain status according to the weather parameters, associating rain status and water flow status, and triggering a water supply mode in a combined waterway of a mainstream and a tributary based on the rain status and the water flow status; Step S16: In this water supply mode, the water flow states of four adjacent main stream-tributary combination waterways are dynamically monitored, and the dynamic interaction of the four main stream-tributary combination waterways is triggered based on the four water flow states to maintain the dynamic stability of multiple main stream-tributary combination waterways.

[0019] In an embodiment of the present invention, through the method in the embodiment of the present invention, in the urban and rural water supply scenario, the urban and rural water supply center is located, and an urban and rural water supply route map is constructed along the traversal of the urban and rural water supply center; multiple main streams and multiple tributaries are divided according to the urban and rural water supply route map, and a combined waterway of the main stream and tributaries is constructed based on the multiple main streams and multiple tributaries; based on the combined waterway of the main stream and tributaries constructed by the tributaries, the diversion nodes and water supply nodes are defined, and a dynamic interaction system is constructed according to the diversion nodes and water supply nodes, so as to construct a dynamic interaction system in the combined waterway of the main stream and tributaries constructed by the tributaries, and the diversion nodes and water supply nodes are dynamically managed and controlled. At the same time, in the dynamic interaction system In the system, water flow parameters in the combined waterway of the mainstream and tributaries are collected, and the water flow state corresponding to the combined waterway of the mainstream and tributaries is defined according to the water flow parameters; weather parameters are collected, and the rain state is defined according to the weather parameters, the rain state and the water flow state are associated, and the water supply mode in the combined waterway of the mainstream and tributaries is triggered based on the rain state and the water flow state, so as to control the rain state and the water flow state in multiple dimensions, and clarify the water supply mode in multiple dimensions, realize the autonomous regulation of the combined waterway of the mainstream and tributaries, and the coordinated regulation among the combined waterways of each mainstream and tributaries, so as to maintain the dynamic stability of the combined waterways of multiple mainstreams and tributaries.

[0020] refer to Figure 2 , in step S11, in the urban and rural water supply scenario, the urban and rural water supply hub is located, and an urban and rural water supply route map is constructed along the traversal of the urban and rural water supply hub; In the specific implementation process of the present invention, the specific steps may be: S111: in the urban and rural water supply scene, defining an urban and rural water supply bird's-eye view based on shooting of the urban and rural water supply scene; S112: marking the urban and rural water supply hub based on the urban and rural water supply bird's-eye view, and locating the urban and rural water supply hub in the urban and rural water supply bird's-eye view; S113: traverse outward along the urban and rural water supply hub, and define the traversal state and traversal route of the urban and rural water supply hub; S114: Construct an urban and rural water supply route map based on the traversal status and traversal route of the urban and rural water supply hub. At this time, the traversal route of the urban and rural water supply hub is marked in the urban and rural water supply route map, and the branching of the traversal route of the urban and rural water supply hub is defined. The mainstream mark and tributary mark in the urban and rural water supply route map are defined according to the branching of the traversal route.

[0021] In an embodiment of the present application, in the urban and rural water supply scenario, an urban and rural water supply bird's-eye view is defined based on the shooting of the urban and rural water supply scenario, so as to facilitate view processing based on the urban and rural water supply bird's-eye view, thereby marking the urban and rural water supply hub based on the urban and rural water supply bird's-eye view, and locating the urban and rural water supply hub in the urban and rural water supply bird's-eye view, thereby ensuring the position accuracy of the urban and rural water supply hub, and further processing based on the urban and rural water supply hub.

[0022] At this time, traverse outward along the urban and rural water supply hub, and define the traversal status and traversal route of the urban and rural water supply hub; construct an urban and rural water supply route map based on the traversal status and traversal route of the urban and rural water supply hub. At this time, the traversal route of the urban and rural water supply hub is marked in the urban and rural water supply route map, and the branching of the traversal route of the urban and rural water supply hub is defined. According to the branching of the traversal route, the mainstream mark and tributary mark in the urban and rural water supply route map are defined, so as to control the mainstream mark and tributary mark, and then locate multiple mainstreams and multiple tributaries in the urban and rural water supply route map, so as to facilitate the control of multiple mainstreams and multiple tributaries.

[0023] refer to Figure 3 In step S12, a plurality of main streams and a plurality of tributaries are divided according to the urban and rural water supply route map, and a combined waterway of the main stream and the tributaries is constructed based on the plurality of main streams and the plurality of tributaries; In the specific implementation process of the present invention, the specific steps may be: S121: Define the roadmap for urban and rural water supply; S122: Display mainstream and tributary marks according to the urban and rural water supply route map; S123: Divide a plurality of mainstreams and a plurality of tributaries based on the urban and rural water supply route map, the mainstream mark and the tributary mark; S124: freeze multiple main streams and multiple tributaries; S125: Correlate multiple main streams and multiple tributaries, and define a correlation coefficient between the main stream and the tributaries; S126: constructing a set of the mainstream and multiple tributaries according to the correlation coefficient between the mainstream and the tributaries and the mainstream; S127: A combined waterway of the mainstream and tributaries is constructed based on a collection of the mainstream and multiple tributaries. At this time, the length of the mainstream and the length of the tributaries are defined, and a length ratio is defined based on the comparison between the length of the mainstream and the length of the tributaries. The combined state of the mainstream and the corresponding tributaries is defined according to the length ratio to limit the combined waterway of the mainstream and tributaries, and the waterway interaction effect between the mainstream and the tributaries is managed and controlled based on the length ratio.

[0024] In an embodiment of the present application, the urban and rural water supply route map is frozen to facilitate further control of the urban and rural water supply route map, so that mainstream marks and tributary marks are presented according to the urban and rural water supply route map, so as to introduce mainstream marks and tributary marks, and associate the urban and rural water supply route map, mainstream marks and tributary marks, so as to control multiple mainstreams and multiple tributaries in the urban and rural water supply route map.

[0025] At this time, multiple mainstreams and multiple tributaries are divided based on the urban and rural water supply route map, mainstream marks and tributary marks, and the urban and rural water supply route map, mainstream marks and tributary marks are overall managed and controlled to facilitate the positioning of multiple mainstreams and multiple tributaries in the urban and rural water supply route map, thereby freezing multiple mainstreams and multiple tributaries.

[0026] Therefore, multiple mainstreams and multiple tributaries are associated, and the correlation coefficient between the mainstream and the tributaries is defined. The degree of correlation is presented according to the correlation coefficient, and the set of the mainstream and multiple tributaries is constructed according to the correlation coefficient between the mainstream and the tributaries and the mainstream; so as to facilitate the management of the relationship between the mainstream and multiple tributaries in the set of the mainstream and multiple tributaries, thereby building a combination of the mainstream and multiple tributaries, and then ensuring the management and control between the mainstream and multiple tributaries.

[0027] Furthermore, a combined waterway of the mainstream and tributaries is constructed based on the collection of the mainstream and multiple tributaries. At this time, the length of the mainstream and the length of the tributaries are defined, and the length ratio is defined based on the comparison between the length of the mainstream and the length of the tributaries. The combined state of the mainstream and the corresponding tributaries is defined according to the length ratio to limit the combined waterway of the mainstream and tributaries, and the waterway interaction effect between the mainstream and the tributaries is controlled based on the length ratio, so as to present the control effect between the mainstream and the tributaries, and ensure the control ability of the mainstream over multiple tributaries.

[0028] refer to Figure 4 In step S13, a combined waterway of the mainstream and the tributaries is constructed based on the tributaries to define the diversion nodes and the water supply nodes, and a dynamic interaction system is constructed according to the diversion nodes and the water supply nodes; In the specific implementation process of the present invention, the specific steps may be: S131: Determine the combined waterway of the mainstream and tributaries; S132: traverse the combined waterway of the mainstream and tributaries, and mark the water supply mark and the diversion mark; S133: matching the corresponding diversion node based on the diversion mark, and matching the corresponding water supply node based on the water supply mark; S134: Fixed grid diversion node and water supply node; S135: Collecting the water flow state matched by the diversion node and the water flow state matched by the water supply node; S136: Perform state interaction according to the water flow state matched by the diversion node and the water flow state matched by the water supply node, and build a state balance relationship based on the water flow state matched by the diversion node and the water flow state matched by the water supply node. At the same time, build a dynamic interaction system based on the diversion node and the water supply node.

[0029] In an embodiment of the present application, the combined waterway of the mainstream and the tributaries is fixed, and the combined waterway of the mainstream and the tributaries is controlled as a whole, so as to control the mainstream and multiple tributaries in the combined waterway of the mainstream and the tributaries. At this time, the combined waterway of the mainstream and the tributaries is traversed, and the water supply mark and the diversion mark are marked; the corresponding diversion node is matched based on the diversion mark, and at the same time, the corresponding water supply node is matched based on the water supply mark, and the diversion node and the water supply node are introduced.

[0030] Furthermore, the diversion nodes and water supply nodes are frozen; the water flow states matched by the diversion nodes and the water flow states matched by the water supply nodes are collected, so as to control the water flow states matched by the diversion nodes and the water flow states matched by the water supply nodes.

[0031] Therefore, state interaction is performed according to the water flow state matched by the diversion node and the water flow state matched by the water supply node, and a state balance relationship is established based on the water flow state matched by the diversion node and the water flow state matched by the water supply node. At the same time, a dynamic interaction system is constructed according to the diversion node and the water supply node, so as to facilitate dynamic control of the diversion node and the water supply node in the dynamic interaction system, thereby ensuring the coordination between the diversion node and the water supply node, and then autonomously controlling the combined waterway of the mainstream and tributaries.

[0032] Therefore, a combined waterway of mainstream and tributaries is constructed based on multiple main streams and multiple tributaries; the combined waterway of mainstream and tributaries constructed based on tributaries is defined as diversion nodes and water supply nodes, and a dynamic interaction system is constructed according to the diversion nodes and water supply nodes, so as to construct a dynamic interaction system in the combined waterway of mainstream and tributaries constructed in tributaries, and dynamic management and control are performed on the diversion nodes and water supply nodes.

[0033] refer to Figure 5 , S14: in the dynamic interactive system, collecting water flow parameters in the combined waterway of the mainstream and the tributary, and defining the water flow state corresponding to the combined waterway of the mainstream and the tributary according to the water flow parameters; In the specific implementation process of the present invention, the specific steps may be: S141: Traversing the combined waterway of mainstream-tributaries in a dynamic interactive system; S142: triggering parameter collection based on the combined waterway of the mainstream and tributaries, and collecting water flow parameters in the combined waterway of the mainstream and tributaries; S143: collecting branching levels in the combined waterway of the mainstream and tributaries, and matching corresponding water flow parameters along the branching levels; S144: Constructing a water flow parameter set based on the water flow parameters corresponding to the multiple branch hierarchical matching; S145: Associating a water flow parameter set and a water flow state table; S146: Define the water flow state corresponding to the combined waterway of the mainstream and tributary based on the water flow parameter set and the water flow state table.

[0034] In an embodiment of the present application, in a dynamic interactive system, the combined waterway of the mainstream and tributaries is traversed, and parameter collection is triggered based on the combined waterway of the mainstream and tributaries to facilitate state control of the combined waterway of the mainstream and tributaries. At this time, the water flow parameters in the combined waterway of the mainstream and tributaries are collected, and at the same time, the branch levels in the combined waterway of the mainstream and tributaries are collected, and the corresponding water flow parameters are matched along the branch levels, thereby matching the corresponding water flow parameters in multiple branch levels, thereby realizing state control of the combined waterway of the mainstream and tributaries at multiple levels.

[0035] At this time, a water flow parameter set is constructed based on the water flow parameters corresponding to the matching of multiple branch levels; the water flow parameter set and the water flow state table are associated; the water flow state corresponding to the combined waterway of the mainstream and tributaries is defined based on the water flow parameter set and the water flow state table, so that the water flow state corresponding to the combined waterway of the mainstream and tributaries can be determined under the matching of the water flow parameter set and the water flow state table, thereby introducing the water flow state corresponding to the combined waterway of the mainstream and tributaries, and then performing state control on the water flow state corresponding to the combined waterway of the mainstream and tributaries, and performing emergency processing based on the water flow state corresponding to the combined waterway of the mainstream and tributaries, so as to ensure the state stability of the mainstream and multiple tributaries.

[0036] refer to Figure 6 , S15: collecting weather parameters, and defining rain state according to the weather parameters, associating rain state and water flow state, and triggering the water supply mode in the combined waterway of the mainstream and tributary based on the rain state and water flow state; In the specific implementation process of the present invention, the specific steps may be: S151: Collect weather parameters; S152: Associating weather parameters, current time, and wind force level, and defining a rain state based on the weather parameters, current time, and wind force level; S153: freeze the rain state and the water flow state, and associate the rain state and the water flow state; S154: Matching the combined waterway of the mainstream and tributaries based on the water flow state; S155: marking the states of multiple positions in the combined waterway of the mainstream and the tributary, and freezing the water flow states corresponding to the multiple positions; S156: triggering a water supply mode in a combined waterway of a mainstream and tributaries based on the water flow states and rain states corresponding to the multiple locations, and performing water surface control on the mainstream and multiple tributaries in the combined waterway water supply mode of the mainstream and tributaries; S157: Based on the terrain parameters corresponding to the multiple tributaries and the current water surface, the interaction state between the mainstream and the tributaries is triggered to control the water surface stability of each tributary.

[0037] In an embodiment of the present application, weather parameters are collected, and the weather parameters, current time, and wind force level are associated, and the rain state is defined based on the weather parameters, current time, and wind force level, thereby introducing the rain state and being compatible with the external influence of the rain state on the water flow state, so as to facilitate overall control of the rain state and the water flow state.

[0038] At this time, the rain state and the water flow state are frozen, and the rain state and the water flow state are associated; the combined waterway of the mainstream and the tributaries is matched based on the water flow state, so as to facilitate the management and control of the combined waterway of the mainstream and the tributaries. At the same time, the states of multiple positions in the combined waterway of the mainstream and the tributaries are marked, and the water flow states corresponding to the multiple positions are frozen, so as to match the corresponding water flow states for the multiple positions, so as to facilitate the state division of the combined waterway of the mainstream and the tributaries at multiple positions, so as to present the overall state of the combined waterway of the mainstream and the tributaries based on the states of the multiple positions, thereby realizing the management and control of the overall state of the combined waterway of the mainstream and the tributaries.

[0039] Furthermore, based on the water flow status and rain water status corresponding to multiple locations, the water supply mode in the combined waterway of the mainstream and tributaries is triggered, and the water surface control is carried out for the mainstream and multiple tributaries in the water supply mode in the combined waterway of the mainstream and tributaries; based on the terrain parameters corresponding to the multiple tributaries and the current water surface, the interaction state of the mainstream and tributaries is triggered to control the water surface stability of each tributary, thereby realizing the dynamic interaction between the mainstream and multiple tributaries, and forming an autonomous regulation mechanism between the mainstream and multiple tributaries.

[0040] refer to Figure 7, S16: In the water supply mode, the water flow states of the four adjacent main stream-tributary combination waterways are dynamically monitored, and the dynamic interaction of the four main stream-tributary combination waterways is triggered based on the four water flow states to maintain the dynamic stability of the multiple main stream-tributary combination waterways; In the specific implementation process of the present invention, the specific steps may be: S161: In the water supply mode, dynamically monitor the water flow status of the combined waterway of four adjacent main streams and tributaries; S162: Dynamically control the four water flow states; S163: triggering dynamic interaction of four main stream-tributary combined waterways based on four water flow states; S164: Define the interaction state of the combined waterway of two adjacent mainstream-tributary streams; S165: Freeze multiple interactive states; S166: constructing a state combination of multiple dimensions based on the multiple interactive states, and presenting the current state of the combined waterway of the four mainstreams and tributaries in real time according to the state combination of the multiple dimensions; S167: triggering dynamic interaction of the four main stream-tributary combined waterways based on the current state of the four main stream-tributary combined waterways to maintain the dynamic stability of the plurality of main stream-tributary combined waterways.

[0041] During the specific implementation of the present invention, in the dynamic interactive system, the water flow parameters in the combined waterway of the mainstream and tributaries are collected, and the water flow state corresponding to the combined waterway of the mainstream and tributaries is defined according to the water flow parameters; the weather parameters are collected, and the rain state is defined according to the weather parameters, the rain state and the water flow state are associated, and the water supply mode in the combined waterway of the mainstream and tributaries is triggered based on the rain state and the water flow state, so as to facilitate multi-dimensional control of the rain state and the water flow state, and clarify the water supply mode in multiple dimensions, thereby realizing the autonomous regulation of the combined waterway of the mainstream and tributaries, and the coordinated regulation among the combined waterways of each mainstream and tributaries, thereby maintaining the dynamic stability of the combined waterways of multiple mainstreams and tributaries.

[0042] At this time, in this water supply mode, the water flow states of the combined waterways of four adjacent mainstreams and tributaries are dynamically monitored; the four water flow states are dynamically controlled, and the combined waterways of the four mainstreams and tributaries are controlled as a whole, so as to facilitate dynamic interaction of the combined waterways of multiple adjacent mainstreams and tributaries.

[0043] Therefore, the dynamic interaction of the combined waterway of four mainstreams and tributaries is triggered based on the four water flow states; the interaction state of the combined waterway of two adjacent mainstreams and tributaries is defined; multiple interaction states are frozen; a multi-dimensional state combination is constructed based on the multiple interaction states, and the current state of the combined waterway of four mainstreams and tributaries is presented in real time according to the multi-dimensional state combination, thereby ensuring the accuracy of the current state of the combined waterway of four mainstreams and tributaries. At the same time, the dynamic interaction of the combined waterway of four mainstreams and tributaries is triggered based on the current state of the combined waterway of four mainstreams and tributaries, so as to maintain the dynamic stability of the combined waterway of multiple mainstreams and tributaries.

[0044] In an embodiment of the present invention, through the method in the embodiment of the present invention, in the urban and rural water supply scenario, the urban and rural water supply center is located, and an urban and rural water supply route map is constructed along the traversal of the urban and rural water supply center; multiple main streams and multiple tributaries are divided according to the urban and rural water supply route map, and a combined waterway of the main stream and tributaries is constructed based on the multiple main streams and multiple tributaries; based on the combined waterway of the main stream and tributaries constructed by the tributaries, the diversion nodes and water supply nodes are defined, and a dynamic interaction system is constructed according to the diversion nodes and water supply nodes, so as to construct a dynamic interaction system in the combined waterway of the main stream and tributaries constructed by the tributaries, and the diversion nodes and water supply nodes are dynamically managed and controlled.

[0045] At the same time, in the dynamic interactive system, the water flow parameters in the combined waterway of the mainstream and tributaries are collected, and the water flow state corresponding to the combined waterway of the mainstream and tributaries is defined according to the water flow parameters; the weather parameters are collected, and the rain state is defined according to the weather parameters, the rain state and the water flow state are associated, and the water supply mode in the combined waterway of the mainstream and tributaries is triggered based on the rain state and the water flow state, so as to facilitate multi-dimensional control of the rain state and the water flow state, and clarify the water supply mode in multiple dimensions, realize the autonomous regulation of the combined waterway of the mainstream and tributaries, and the coordinated regulation among the combined waterways of each mainstream and tributary, so as to maintain the dynamic stability of multiple combined waterways of mainstreams and tributaries.

[0046] System Example: See also Figure 8 , Figure 8 It is a schematic diagram of the structural composition of a multi-dimensional assessment system in a base dynamic environment in an embodiment of the present invention.

[0047] like Figure 8 As shown, a multi-dimensional assessment system in a base dynamic environment, the multi-dimensional assessment system in the base dynamic environment includes: The urban and rural water supply route map module 21 is used to locate the urban and rural water supply hub in the urban and rural water supply scenario, and to construct an urban and rural water supply route map along the traversal of the urban and rural water supply hub; A combined waterway module 22 is used to divide a plurality of main streams and a plurality of tributaries according to the urban and rural water supply route map, and construct a combined waterway of the main stream and the tributaries based on the plurality of main streams and the plurality of tributaries; A dynamic interaction system module 23, for defining a combined waterway of a mainstream and a tributary based on the tributaries, and for building a dynamic interaction system based on the tributary nodes and the water supply nodes; The water flow state module 24 is used to collect water flow parameters in the combined waterway of the mainstream and tributaries in the dynamic interactive system, and define the water flow state corresponding to the combined waterway of the mainstream and tributaries according to the water flow parameters; The water supply mode module 25 is used to collect weather parameters, define the rain state according to the weather parameters, associate the rain state with the water flow state, and trigger the water supply mode in the combined waterway of the mainstream and tributaries based on the rain state and the water flow state; The dynamic interaction module 26 is used to dynamically monitor the water flow states of the four adjacent main stream-tributary combination waterways in the water supply mode, and trigger the dynamic interaction of the four main stream-tributary combination waterways based on the four water flow states to maintain the dynamic stability of the multiple main stream-tributary combination waterways. Example

[0048] See also Fig. 9 , refer to the following Fig. 9 The electronic device 40 according to this embodiment of the present invention will be described. Fig. 9 The electronic device 40 shown is only an example and should not bring any limitation to the functions and scope of use of the embodiments of the present invention.

[0049] like Fig. 9 As shown, the electronic device 40 is in the form of a general computing device. The components of the electronic device 40 may include but are not limited to: at least one processing unit 41, at least one storage unit 42, and a bus 43 connecting different system components (including the storage unit 42 and the processing unit 41).

[0050] The storage unit stores program codes, which can be executed by the processing unit 41, so that the processing unit 41 executes the steps according to various exemplary embodiments of the present invention described in the above “Embodiment Method” section of this specification.

[0051] The storage unit 42 may include a readable medium in the form of a volatile storage unit, such as a random access memory unit (RAM) 421 and / or a cache memory unit 422 , and may further include a read-only memory unit (ROM) 423 .

[0052] The storage unit 42 may also include a program / utility 424 having a set (at least one) of dynamic interaction modules 425, such dynamic interaction modules 425 including but not limited to: an operating system, one or more application programs, other dynamic interaction modules, and program data, each of which or some combination may include an implementation of a network environment.

[0053] Bus 43 may represent one or more of several types of bus structures, including a memory unit bus or memory unit controller, a peripheral bus, an accelerated graphics port, a processing unit, or a local bus using any of a variety of bus architectures.

[0054] The electronic device 40 may also communicate with one or more external devices (e.g., keyboards, pointing devices, Bluetooth devices, etc.), one or more devices that enable a user to interact with the electronic device 40, and / or any device that enables the electronic device 40 to communicate with one or more other computing devices (e.g., routers, modems, etc.). Such communication may be performed via an input / output (I / O) interface 44. Furthermore, the electronic device 40 may also communicate with one or more networks (e.g., a local area network (LAN), a wide area network (WAN), and / or a public network, such as the Internet) via a network adapter 45. Fig. 9 As shown, the network adapter 45 communicates with other modules of the electronic device 40 via the bus 43. It should be understood that although Fig. 9 Not shown, other hardware and / or software modules may be used in conjunction with the electronic device 40, including but not limited to: microcode, device drivers, redundant processing units, external disk drive arrays, RAID systems, tape drives, and data backup planning systems.

[0055] Through the description of the above implementation, it is easy for those skilled in the art to understand that the example implementation described here can be implemented by software, or by software combined with necessary hardware. Therefore, the technical solution according to the implementation of the present disclosure can be embodied in the form of a software product, which can be stored in a non-volatile storage medium (which can be a CD-ROM, a USB flash drive, a mobile hard disk, etc.) or on a network, and includes a number of instructions to enable a computing device (which can be a personal computer, a server, a terminal device, or a network device, etc.) to execute the method according to the implementation of the present disclosure.

[0056] Those skilled in the art can understand that all or part of the steps in the various methods of the above embodiments can be completed by instructing related hardware through a program, and the program can be stored in a computer-readable storage medium, and the storage medium can include: a read-only memory (ROM), a random access memory (RAM), a disk or an optical disk, etc. In addition, it stores computer program instructions, and when the computer program instructions are executed by a computer, the computer executes the above method.

[0057] In addition, the multi-dimensional control method and system for urban and rural water supply provided by the embodiments of the present invention are introduced in detail above. Specific examples are used in this article to illustrate the principles and implementation methods of the present invention. The description of the above embodiments is only used to help understand the method of the present invention and its core idea; at the same time, for general technical personnel in this field, according to the ideas of the present invention, there will be changes in the specific implementation methods and application scopes. In summary, the content of this specification should not be understood as a limitation on the present invention.

Claims

1. A multi-dimensional control method for urban and rural water supply, characterized in that: Applied to multi-dimensional control scenarios of urban and rural water supply; The multi-dimensional control method for urban and rural water supply comprises: In the urban and rural water supply scenario, locate the urban and rural water supply hubs, and build an urban and rural water supply route map along the traversal of the urban and rural water supply hubs; Divide multiple main streams and multiple tributaries according to the urban and rural water supply route map, and construct a combined waterway of the main stream and tributaries based on the multiple main streams and multiple tributaries; Based on the tributaries, the combined waterway of the mainstream and tributaries is constructed to define the diversion nodes and water supply nodes, and a dynamic interactive system is constructed according to the diversion nodes and water supply nodes; In the dynamic interactive system, the water flow parameters in the combined waterway of the mainstream and the tributary are collected, and the water flow state corresponding to the combined waterway of the mainstream and the tributary is defined according to the water flow parameters; Collect weather parameters, define rain status according to the weather parameters, associate rain status and water flow status, and trigger the water supply mode in the combined waterway of mainstream and tributary based on the rain status and water flow status; In this water supply mode, the water flow states of the four adjacent main stream-tributary combined waterways are dynamically monitored, and the dynamic interaction of the four main stream-tributary combined waterways is triggered based on the four water flow states to maintain the dynamic stability of the multiple main stream-tributary combined waterways.

2. The multi-dimensional control method for urban and rural water supply according to claim 1, characterized in that: In the urban and rural water supply scenario, locating the urban and rural water supply hub and constructing an urban and rural water supply route map along the traversal of the urban and rural water supply hub include: In the urban and rural water supply scene, an urban and rural water supply bird's-eye view is defined based on the shooting of the urban and rural water supply scene; Marking the urban and rural water supply hubs based on the urban and rural water supply bird's-eye view, and locating the urban and rural water supply hubs in the urban and rural water supply bird's-eye view; Traverse outward along the urban and rural water supply hub, and define the traversal status and traversal route of the urban and rural water supply hub; An urban and rural water supply route map is constructed based on the traversal status and traversal route of the urban and rural water supply hub. At this time, the traversal route of the urban and rural water supply hub is marked in the urban and rural water supply route map, and the branching of the traversal route of the urban and rural water supply hub is defined. The mainstream mark and tributary mark in the urban and rural water supply route map are defined according to the branching of the traversal route.

3. The multi-dimensional control method for urban and rural water supply according to claim 1, characterized in that: The method of dividing a plurality of main streams and a plurality of tributaries according to the urban and rural water supply route map, and constructing a combined waterway of the main stream and the tributaries based on the plurality of main streams and the plurality of tributaries, comprises: Define the roadmap for urban and rural water supply; Present mainstream and tributary marks according to the urban and rural water supply route map; Divide multiple main streams and multiple tributaries based on urban and rural water supply route maps, main stream marks and tributary marks; Freeze multiple main streams and multiple tributaries; Correlate multiple main streams and multiple tributaries, and define the correlation coefficient between the main stream and the tributaries; According to the mainstream-tributary correlation coefficient, the mainstream constructs a set of mainstreams and multiple tributaries; A combined waterway of the mainstream and tributaries is constructed based on the collection of the mainstream and multiple tributaries. At this time, the length of the mainstream and the length of the tributaries are defined, and the length ratio is defined based on the comparison between the length of the mainstream and the length of the tributaries. The combined state of the mainstream and the corresponding tributaries is defined according to the length ratio to limit the combined waterway of the mainstream and tributaries, and the waterway interaction effect between the mainstream and the tributaries is managed and controlled based on the length ratio.

4. The multi-dimensional control method for urban and rural water supply according to claim 3 is characterized in that: The combined waterway of the main stream and the tributaries is constructed based on the tributaries to define the diversion nodes and the water supply nodes, and a dynamic interactive system is constructed according to the diversion nodes and the water supply nodes, including: Define the combined waterway of mainstream and tributaries; Traverse the combined waterway of the mainstream and tributaries, and mark the water supply marks and diversion marks; Match the corresponding diversion node based on the diversion mark, and at the same time, match the corresponding water supply node based on the water supply mark; Fixed-grid diversion nodes and water supply nodes; Collect the water flow status matched by the diversion node and the water flow status matched by the water supply node; State interaction is performed according to the water flow state matched by the diversion node and the water flow state matched by the water supply node, and a state balance relationship is established based on the water flow state matched by the diversion node and the water flow state matched by the water supply node. At the same time, a dynamic interaction system is established based on the diversion node and the water supply node.

5. The multi-dimensional control method for urban and rural water supply according to claim 4 is characterized in that: In the dynamic interactive system, water flow parameters in the combined waterway of the mainstream and tributaries are collected, and the water flow state corresponding to the combined waterway of the mainstream and tributaries is defined according to the water flow parameters, including: In a dynamic interactive system, traverse the combined waterway of mainstream and tributaries; Trigger parameter collection based on the combined waterway of mainstream and tributaries, and collect water flow parameters in the combined waterway of mainstream and tributaries; Collect the branching level in the combined waterway of the mainstream and tributaries, and match the corresponding water flow parameters along the branching level; Construct a water flow parameter set based on matching corresponding water flow parameters at multiple branch levels; Associating a set of water flow parameters and a water flow state table; The water flow state corresponding to the combined waterway of the mainstream and tributary is defined based on the water flow parameter set and the water flow state table.

6. The multi-dimensional control method for urban and rural water supply according to claim 5, characterized in that: The collecting of weather parameters, defining rain state according to the weather parameters, associating rain state with water flow state, and triggering the water supply mode in the combined waterway of the mainstream and tributaries based on the rain state and water flow state include: Collect weather parameters; Associating weather parameters, current time, and wind force level, and defining rain state based on the weather parameters, current time, and wind force level; Freeze the rain state and water flow state, and associate the rain state and water flow state; Matching the combined waterways of the mainstream and tributaries based on the flow state; The states of multiple positions are marked in the combined waterway of the mainstream and tributaries, and the water flow states corresponding to the multiple positions are frozen.

7. The multi-dimensional control method for urban and rural water supply according to claim 6, characterized in that: The method of collecting weather parameters, defining rain status according to the weather parameters, associating rain status and water flow status, and triggering the water supply mode in the combined waterway of the mainstream and tributaries based on the rain status and water flow status, further includes: Based on the water flow status and rainwater status corresponding to multiple locations, the water supply mode in the combined waterway of the mainstream and tributaries is triggered, and the water surface control is performed on the mainstream and multiple tributaries in the combined waterway water supply mode of the mainstream and tributaries; Based on the terrain parameters corresponding to multiple tributaries and the current water surface, the interaction status between the mainstream and tributaries is triggered to control the water surface stability of each tributary.

8. The multi-dimensional control method for urban and rural water supply according to claim 1, characterized in that: In the water supply mode, the water flow states of the four adjacent main stream-tributary combined waterways are dynamically monitored, and the dynamic interaction of the four main stream-tributary combined waterways is triggered based on the four water flow states to maintain the dynamic stability of the multiple main stream-tributary combined waterways, including: In this water supply mode, the water flow status of the combined waterway of four adjacent main streams and tributaries is dynamically monitored; Dynamically control the four water flow states; The dynamic interaction of four main stream-tributary combined waterways is triggered based on four flow states; Defines the interaction state of the combined waterway of two adjacent mainstreams and tributaries.

9. The multi-dimensional control method for urban and rural water supply according to claim 8, characterized in that: In the water supply mode, the water flow states of the four adjacent main stream-tributary combined waterways are dynamically monitored, and the dynamic interaction of the four main stream-tributary combined waterways is triggered based on the four water flow states to maintain the dynamic stability of the multiple main stream-tributary combined waterways, and further includes: Freeze multiple interaction states; Based on multiple interactive states, a state combination of multiple dimensions is constructed, and the current state of the combined waterway of four mainstreams and tributaries is presented in real time according to the state combination of multiple dimensions; Based on the current state of the combined waterway of the four main streams and tributaries, the dynamic interaction of the combined waterway of the four main streams and tributaries is triggered to maintain the dynamic stability of the combined waterway of the multiple main streams and tributaries.

10. A multi-dimensional assessment system in a dynamic environment, characterized in that: The multi-dimensional assessment system in the base dynamic environment is applied to the multi-dimensional control method for urban and rural water supply as claimed in any one of claims 1 to 9, and the multi-dimensional assessment system in the base dynamic environment includes: The urban and rural water supply route map module is used to locate the urban and rural water supply hubs in the urban and rural water supply scenarios, and to construct an urban and rural water supply route map along the traversal of the urban and rural water supply hubs; A combined waterway module is used to divide multiple main streams and multiple tributaries according to the urban and rural water supply route map, and construct a combined waterway of the main stream and tributaries based on the multiple main streams and multiple tributaries; A dynamic interaction system module is used to define diversion nodes and water supply nodes based on the combined waterway of the mainstream and tributaries, and to build a dynamic interaction system based on the diversion nodes and water supply nodes; A water flow state module is used to collect water flow parameters in a combined waterway of a mainstream and a tributary in a dynamic interactive system, and define the water flow state corresponding to the combined waterway of the mainstream and a tributary according to the water flow parameters; The water supply mode module is used to collect weather parameters, define the rain state according to the weather parameters, associate the rain state and the water flow state, and trigger the water supply mode in the combined waterway of the mainstream and tributaries based on the rain state and the water flow state; The dynamic interaction module is used to dynamically monitor the water flow states of the four adjacent main stream-tributary combination waterways in the water supply mode, and trigger the dynamic interaction of the four main stream-tributary combination waterways based on the four water flow states to maintain the dynamic stability of the multiple main stream-tributary combination waterways.

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