Control method and system for wastewater evaporation equipment

Abstract

The present invention discloses a control method and system for wastewater evaporation equipment, which marks multiple wastewater detection points according to wastewater space; triggers fixed-point detection of wastewater according to each wastewater detection point, and collects multiple wastewater detection data; constructs a wastewater component system in a wastewater storage bin according to multiple wastewater detection data and the detection positions of corresponding wastewater detection points. Further, a corresponding evaporation logic is constructed according to a preset condensate output and the wastewater component system; during the operation of the evaporation logic, the evaporation attenuation of the wastewater component system at a preset time is monitored, and an attenuation factor is defined according to the evaporation attenuation and the service life of the wastewater evaporation equipment; a corresponding attenuation section is defined according to the attenuation factor, and the attenuation section is associated based on multiple adjacent sections to construct a collaborative section system, and the self-optimization control of the attenuation section is triggered based on the collaborative section system and the self-control system of the attenuation section, thereby ensuring multiple optimizations of the attenuation section.

Description

Technical Field

[0001] The present invention relates to the technical field of wastewater evaporation equipment, and in particular to a control method and system for wastewater evaporation equipment. Background Art

[0002] With the development of science and technology, wastewater evaporation equipment is applied to the field of environmental protection, and is used to contain, store and evaporate wastewater. During the evaporation process, the wastewater outputs the corresponding salt, which is discharged and the condensed water is retained. The condensed water is used as qualified discharge water. In the prior art, the wastewater evaporation equipment gradually decays with the increase of service life and needs artificial repair. However, the attenuation factor of the wastewater evaporation equipment is artificially speculated and optimized separately, and multiple optimizations are not performed on the attenuation section, which affects the evaporation effect of the wastewater evaporation equipment on the wastewater. 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 control method and system for wastewater evaporation equipment, which constructs a wastewater component system in a wastewater holding bin according to multiple wastewater detection data and the detection positions of corresponding wastewater detection points, thereby defining a corresponding wastewater component system for the wastewater, thereby achieving overall control of the wastewater component system, so as to facilitate targeted evaporation treatment of the wastewater component system.

[0004] Furthermore, the corresponding attenuation section is defined according to the attenuation factor, and the attenuation section is associated based on multiple adjacent sections to construct a collaborative section system. The self-optimization control of the attenuation section is triggered based on the collaborative section system and the self-control system of the attenuation section, so as to facilitate the control of the attenuation section in multiple dimensions. Joint control is performed based on the collaborative section system and the self-control system of the attenuation section, thereby ensuring multiple optimizations of the attenuation section, so as to ensure that the final condensate output and the preset condensate output are maintained within a reasonable range, thereby realizing the evaporation effect of the wastewater evaporation equipment on the wastewater.

[0005] In order to solve the above technical problems, an embodiment of the present invention provides a control method for wastewater evaporation equipment, which is applied to the control scenario of wastewater evaporation equipment;

[0006] The control method of the wastewater evaporation equipment comprises:

[0007] Locating a wastewater holding tank in the wastewater evaporation equipment and collecting the wastewater content stored in the wastewater holding tank;

[0008] Define the wastewater space based on the wastewater content and basic information of the wastewater holding tank, and mark multiple wastewater detection points according to the wastewater space;

[0009] Triggering fixed-point detection of wastewater according to each wastewater detection point, and collecting multiple wastewater detection data; constructing a wastewater component system in the wastewater holding tank according to the multiple wastewater detection data and the detection positions of the corresponding wastewater detection points;

[0010] Define the preset condensate output based on the wastewater content and the wastewater evaporation equipment, and build the corresponding evaporation logic according to the preset condensate output and the wastewater composition system;

[0011] During the operation of the evaporation logic, the evaporation attenuation of the wastewater component system at a preset time is monitored, and the attenuation factor is defined according to the evaporation attenuation and the service life of the wastewater evaporation equipment;

[0012] The corresponding attenuation section is defined according to the attenuation factor, and the attenuation section is associated based on multiple adjacent sections to build a collaborative section system. The self-optimization control of the attenuation section is triggered based on the collaborative section system and the self-control system of the attenuation section.

[0013] Optionally, the locating the wastewater storage bin in the wastewater evaporation device and collecting the wastewater content stored in the wastewater storage bin includes:

[0014] Collection of wastewater evaporation equipment;

[0015] Traverse the wastewater evaporation equipment and collect the spatial location of the wastewater storage tank;

[0016] locating the wastewater holding bin based on the spatial location of the wastewater holding bin;

[0017] The current storage position of the wastewater is defined based on the capacity detection of the wastewater storage bin, and the wastewater content stored in the wastewater storage bin is defined according to the current storage position of the wastewater to collect the wastewater content stored in the wastewater storage bin.

[0018] Optionally, the wastewater space is defined based on the wastewater content and basic information of the wastewater storage tank, and a plurality of wastewater detection points are marked according to the wastewater space, including:

[0019] Fixed wastewater content;

[0020] Collect basic information of the wastewater holding tank, and construct a three-dimensional space of the wastewater holding tank based on the basic information of the wastewater holding tank;

[0021] Further improve the three-dimensional space of the wastewater holding tank based on the internal contour of the wastewater holding tank;

[0022] Associating the three-dimensional space of the wastewater holding bin and the wastewater content, and defining the wastewater space according to the three-dimensional space of the wastewater holding bin and the wastewater content;

[0023] Mark the wastewater input location based on the wastewater space, and divide the wastewater space and the wastewater input location into multiple wastewater subspaces;

[0024] Based on the corresponding center points defined in the multiple wastewater subspaces, a circular detection path is constructed based on the multiple center points; and the corresponding wastewater detection points are marked according to the circular detection path and the multiple wastewater subspaces.

[0025] Optionally, triggering fixed-point detection of wastewater according to each wastewater detection point and collecting multiple wastewater detection data; constructing a wastewater component system in the wastewater holding tank according to the multiple wastewater detection data and the detection positions of the corresponding wastewater detection points, including:

[0026] Freeze each wastewater testing point;

[0027] Match the corresponding detection probe based on each wastewater detection point, and perform fixed-point detection according to each detection probe to trigger the fixed-point detection of wastewater;

[0028] Outputting a corresponding detection table based on the fixed-point detection of wastewater, and determining a plurality of wastewater detection data according to the screening of the detection table;

[0029] Collect multiple wastewater testing data;

[0030] Associating multiple wastewater detection data and detection locations of corresponding wastewater detection points;

[0031] A wastewater composition framework is constructed based on a plurality of wastewater detection data, and a wastewater composition system in a wastewater holding tank is constructed according to the wastewater composition framework and detection positions of corresponding wastewater detection points.

[0032] Optionally, the preset condensed water output is defined based on the wastewater content and the wastewater evaporation equipment, and the corresponding evaporation logic is constructed according to the preset condensed water output and the wastewater component system, including:

[0033] Determine the wastewater content and define the wastewater content level according to the wastewater content;

[0034] Collect the condensate output efficiency table of the wastewater evaporation equipment;

[0035] Match the corresponding condensate output efficiency according to the condensate output efficiency table and the wastewater content level;

[0036] Define preset condensate output based on condensate output efficiency and wastewater content;

[0037] The preset condensate output and wastewater composition system are associated, and the key evaporation components are defined according to the wastewater composition system, and the first evaporation means is defined based on the content of the key evaporation components; the second evaporation means is defined according to the preset condensate output and wastewater content, and the corresponding evaporation logic is constructed according to the second evaporation means and the first evaporation means.

[0038] Optionally, during the operation of the evaporation logic, the evaporation attenuation of the wastewater component system within a preset time is monitored, and an attenuation factor is defined according to the evaporation attenuation and the service life of the wastewater evaporation equipment, including:

[0039] During the operation of the evaporation logic, the wastewater component system is monitored for evaporation in real time;

[0040] Collect the evaporation amount of the wastewater component system at a preset time;

[0041] The evaporation amount is compared with a preset evaporation amount, and an evaporation difference amount is defined;

[0042] A plurality of evaporation difference amounts are collected, and an evaporation attenuation amount is defined based on the plurality of evaporation difference amounts.

[0043] Optionally, during the operation of the evaporation logic, the evaporation attenuation of the wastewater component system within a preset time is monitored, and the attenuation factor is defined according to the evaporation attenuation and the service life of the wastewater evaporation equipment, and further includes:

[0044] The service life of the equipment used to collect and evaporate wastewater;

[0045] Match the theoretical evaporation attenuation according to the service life of the wastewater evaporation equipment;

[0046] Based on the comparison between the evaporation attenuation and the theoretical evaporation attenuation, the corresponding attenuation detection is matched, and the real-time attenuation detection is performed on the evaporation logic to mark the severely attenuated part in the evaporation logic, and the attenuation factor is defined according to the severely attenuated part.

[0047] Optionally, the attenuation section corresponding to the attenuation factor is defined, the attenuation section is associated with the attenuation section based on multiple adjacent sections, a collaborative section system is constructed, and the self-optimization control of the attenuation section is triggered based on the collaborative section system and the self-control system of the attenuation section, including:

[0048] Freeze-frame attenuation factor;

[0049] A corresponding attenuation section is defined according to the attenuation factor; multiple adjacent sections are defined according to the attenuation section, and the attenuation section is associated based on the multiple adjacent sections;

[0050] Multiple adjacent work sections are interacted with the attenuation work section to define an interaction channel; and a collaborative work section system is constructed based on the multiple interaction channels.

[0051] Optionally, the attenuation section corresponding to the attenuation factor is defined, the attenuation section is associated with the attenuation section based on multiple adjacent sections, a collaborative section system is constructed, and the self-optimization control of the attenuation section is triggered based on the collaborative section system and the self-control system of the attenuation section, further comprising:

[0052] Freeze the attenuation section and perform self-detection on the attenuation section to output the self-control part;

[0053] According to the self-control part, the self-control system of the attenuation section, the self-control system of the associated attenuation section and the coordinated section system are constructed;

[0054] Based on the collaborative section system and the self-control system of the attenuation section, the self-optimization control of the attenuation section is triggered to ensure that the final condensate output and the preset condensate output are maintained within a reasonable range.

[0055] In addition, an embodiment of the present invention further provides a control system for a wastewater evaporation device, the control system for the wastewater evaporation device comprising:

[0056] A collection module, used to locate the wastewater storage bin in the wastewater evaporation equipment and collect the wastewater content stored in the wastewater storage bin;

[0057] A wastewater detection module, used to define a wastewater space based on wastewater content and basic information of a wastewater storage tank, and mark multiple wastewater detection points according to the wastewater space;

[0058] The wastewater composition system module is used to trigger the fixed-point detection of wastewater according to each wastewater detection point and collect multiple wastewater detection data; and to construct the wastewater composition system in the wastewater holding tank according to the multiple wastewater detection data and the detection positions of the corresponding wastewater detection points;

[0059] An evaporation logic module is used to define a preset condensed water output based on the wastewater content and the wastewater evaporation equipment, and to construct a corresponding evaporation logic according to the preset condensed water output and the wastewater composition system;

[0060] The attenuation module is used to monitor the evaporation attenuation of the wastewater component system at a preset time during the operation of the evaporation logic, and define the attenuation factor according to the evaporation attenuation and the service life of the wastewater evaporation equipment;

[0061] The self-optimization control module is used to define the corresponding attenuation section according to the attenuation factor, associate the attenuation section based on multiple adjacent sections, build a collaborative section system, and trigger the self-optimization control of the attenuation section based on the collaborative section system and the self-control system of the attenuation section.

[0062] In an embodiment of the present invention, through the method in the embodiment of the present invention, the wastewater holding bin in the wastewater evaporation equipment is located, and the wastewater content stored in the wastewater holding bin is collected; the wastewater space is defined based on the wastewater content and basic information of the wastewater holding bin, and multiple wastewater detection points are marked according to the wastewater space; fixed-point detection of wastewater is triggered according to each wastewater detection point, and multiple wastewater detection data are collected; a wastewater component system in the wastewater holding bin is constructed according to the multiple wastewater detection data and the detection positions of the corresponding wastewater detection points, thereby defining a corresponding wastewater component system for the wastewater, and realizing overall control of the wastewater component system, so as to facilitate targeted evaporation treatment of the wastewater component system.

[0063] Furthermore, a preset condensate output is defined based on the wastewater content and the wastewater evaporation equipment, and a corresponding evaporation logic is constructed according to the preset condensate output and the wastewater component system; during the operation of the evaporation logic, the evaporation attenuation of the wastewater component system within a preset time is monitored, and an attenuation factor is defined according to the evaporation attenuation and the service life of the wastewater evaporation equipment; a corresponding attenuation section is defined according to the attenuation factor, and a collaborative section system is constructed based on associating the attenuation section with multiple adjacent sections, and self-optimization control of the attenuation section is triggered based on the collaborative section system and the self-control system of the attenuation section, so as to facilitate the control of the attenuation section in multiple dimensions; joint control is performed based on the collaborative section system and the self-control system of the attenuation section, thereby ensuring multiple optimizations of the attenuation section, so as to ensure that the final condensate output and the preset condensate output are maintained within a reasonable range, thereby achieving the evaporation effect of the wastewater evaporation equipment on the wastewater. BRIEF DESCRIPTION OF THE DRAWINGS

[0064] 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.

[0065] Figure 1 is a flow chart of a control method for a wastewater evaporation device in an embodiment of the present invention;

[0066] Figure 2 is a flow chart of S11 in the control method of the wastewater evaporation equipment in the embodiment of the present invention;

[0067] Figure 3 is a schematic flow chart of S12 in the control method of the wastewater evaporation equipment in the embodiment of the present invention;

[0068] Figure 4is a schematic flow chart of S13 in the control method of the wastewater evaporation equipment in the embodiment of the present invention;

[0069] Figure 5 is a schematic flow chart of S14 in the control method of the wastewater evaporation equipment in the embodiment of the present invention;

[0070] Figure 6 is a schematic flow chart of S15 in the control method of the wastewater evaporation equipment in the embodiment of the present invention;

[0071] Figure 7 is a schematic flow chart of S16 in the control method of the wastewater evaporation equipment in the embodiment of the present invention;

[0072] Figure 8 It is a schematic diagram of the structure of the control system of the wastewater evaporation equipment in the embodiment of the present invention;

[0073] Fig. 9 The figure is a hardware diagram of an electronic device according to an exemplary embodiment. DETAILED DESCRIPTION

[0074] 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.

[0075] Method Embodiment

[0076] See also Figures 1 to 9 , a control method for wastewater evaporation equipment, applied to the control scenario of wastewater evaporation equipment; the control method for wastewater evaporation equipment includes:

[0077] Step S11: locating the wastewater storage tank in the wastewater evaporation equipment, and collecting the wastewater content stored in the wastewater storage tank;

[0078] Step S12: defining a wastewater space based on the wastewater content and basic information of the wastewater storage tank, and marking a plurality of wastewater detection points according to the wastewater space;

[0079] Step S13: triggering fixed-point detection of wastewater according to each wastewater detection point, and collecting a plurality of wastewater detection data; constructing a wastewater component system in the wastewater holding tank according to the plurality of wastewater detection data and the detection positions of the corresponding wastewater detection points;

[0080] Step S14: defining a preset condensed water output based on the wastewater content and the wastewater evaporation equipment, and constructing a corresponding evaporation logic according to the preset condensed water output and the wastewater component system;

[0081] Step S15: During the operation of the evaporation logic, the evaporation attenuation of the wastewater component system within a preset time is monitored, and an attenuation factor is defined according to the evaporation attenuation and the service life of the wastewater evaporation equipment;

[0082] Step S16: define the corresponding attenuation section according to the attenuation factor, associate the attenuation section based on multiple adjacent sections, build a collaborative section system, and trigger the self-optimization control of the attenuation section based on the collaborative section system and the self-control system of the attenuation section.

[0083] In an embodiment of the present invention, through the method in the embodiment of the present invention, the wastewater holding bin in the wastewater evaporation equipment is located, and the wastewater content stored in the wastewater holding bin is collected; the wastewater space is defined based on the wastewater content and basic information of the wastewater holding bin, and multiple wastewater detection points are marked according to the wastewater space; fixed-point detection of wastewater is triggered according to each wastewater detection point, and multiple wastewater detection data are collected; a wastewater component system in the wastewater holding bin is constructed according to the multiple wastewater detection data and the detection positions of the corresponding wastewater detection points, thereby defining a corresponding wastewater component system for the wastewater, and realizing overall control of the wastewater component system, so as to facilitate targeted evaporation treatment of the wastewater component system.

[0084] Furthermore, a preset condensate output is defined based on the wastewater content and the wastewater evaporation equipment, and a corresponding evaporation logic is constructed according to the preset condensate output and the wastewater component system; during the operation of the evaporation logic, the evaporation attenuation of the wastewater component system within a preset time is monitored, and an attenuation factor is defined according to the evaporation attenuation and the service life of the wastewater evaporation equipment; a corresponding attenuation section is defined according to the attenuation factor, and a collaborative section system is constructed based on associating the attenuation section with multiple adjacent sections, and self-optimization control of the attenuation section is triggered based on the collaborative section system and the self-control system of the attenuation section, so as to facilitate the control of the attenuation section in multiple dimensions; joint control is performed based on the collaborative section system and the self-control system of the attenuation section, thereby ensuring multiple optimizations of the attenuation section, so as to ensure that the final condensate output and the preset condensate output are maintained within a reasonable range, thereby achieving the evaporation effect of the wastewater evaporation equipment on the wastewater.

[0085] refer to Figure 2 , in step S11, locating the wastewater storage bin in the wastewater evaporation equipment, and collecting the wastewater content stored in the wastewater storage bin;

[0086] In the specific implementation process of the present invention, the specific steps may be:

[0087] S111: Collection of wastewater evaporation equipment;

[0088] S112: traverse the wastewater evaporation equipment and collect the spatial position of the wastewater storage bin;

[0089] S113: Positioning the wastewater holding bin based on the spatial position of the wastewater holding bin;

[0090] S114: defining a current storage position of the wastewater based on the capacity detection of the wastewater storage bin, and defining the wastewater content stored in the wastewater storage bin according to the current storage position of the wastewater, so as to collect the wastewater content stored in the wastewater storage bin.

[0091] In the embodiment of the present application, the wastewater evaporation equipment is collected and located so as to traverse the wastewater evaporation equipment, thereby traversing the wastewater evaporation equipment and collecting the spatial position of the wastewater storage bin so as to introduce the spatial position of the wastewater storage bin. At this time, the wastewater storage bin is used to store wastewater and store wastewater input from the outside so as to further process the wastewater. The wastewater evaporation equipment stores, stores and evaporates wastewater.

[0092] At this time, the wastewater holding bin is positioned based on its spatial position so as to accurately position the wastewater holding bin, thereby controlling the part of the wastewater evaporation equipment that holds wastewater so as to trigger the later treatment of the wastewater along the wastewater holding bin.

[0093] Therefore, the wastewater holding bin is located, and the capacity of the wastewater holding bin is detected, so that the current holding position of the wastewater can be defined based on the capacity detection of the wastewater holding bin, so that the current holding position of the wastewater can be managed and controlled, so that the wastewater content stored in the wastewater holding bin can be defined according to the current holding position of the wastewater, so that the wastewater content stored in the wastewater holding bin can be collected, thereby clarifying the wastewater content stored in the wastewater holding bin, so as to determine the wastewater content that needs to be treated, thereby ensuring the treatment of the wastewater by the wastewater evaporation equipment.

[0094] refer to Figure 3 , in step S12, a wastewater space is defined based on the wastewater content and basic information of the wastewater storage tank, and a plurality of wastewater detection points are marked according to the wastewater space;

[0095] In the specific implementation process of the present invention, the specific steps may be:

[0096] S121: Fixed wastewater content;

[0097] S122: Collect basic information of the wastewater holding bin, and construct a three-dimensional space of the wastewater holding bin according to the basic information of the wastewater holding bin;

[0098] S123: further improving the three-dimensional space of the wastewater holding bin based on the internal contour of the wastewater holding bin;

[0099] S124: Associating the three-dimensional space of the wastewater holding bin and the wastewater content, and defining the wastewater space according to the three-dimensional space of the wastewater holding bin and the wastewater content;

[0100] S125: marking a wastewater input location based on the wastewater space, and dividing a plurality of wastewater subspaces according to the wastewater space and the wastewater input location;

[0101] S126: defining corresponding center points based on the multiple wastewater subspaces, and constructing a circular detection path based on the multiple center points; and marking corresponding wastewater detection points according to the circular detection path and the multiple wastewater subspaces.

[0102] In an embodiment of the present application, the wastewater content is frozen and controlled. At the same time, the basic information of the wastewater holding bin is collected to facilitate screening of the basic information of the wastewater holding bin. The basic information of the wastewater holding bin includes the holding size of the wastewater holding bin, the carrying capacity of the wastewater holding bin, etc. The basic information of the wastewater holding bin is introduced, and the three-dimensional space of the wastewater holding bin is constructed according to the basic information of the wastewater holding bin, thereby clarifying the three-dimensional space of the wastewater holding bin, so as to facilitate further processing of the three-dimensional space of the wastewater holding bin.

[0103] At this time, the internal contour of the wastewater holding bin is defined based on the basic information of the wastewater holding bin, so as to introduce the internal contour of the wastewater holding bin, and thereby improve the three-dimensional space of the wastewater holding bin based on the internal contour of the wastewater holding bin, so as to further improve the three-dimensional space of the wastewater holding bin based on the internal contour of the wastewater holding bin, thereby ensuring the accuracy of the three-dimensional space of the wastewater holding bin, and taking into account the bearing part of the wastewater holding bin for wastewater.

[0104] Therefore, the three-dimensional space of the wastewater holding bin and the wastewater content are associated so as to define the wastewater space according to the three-dimensional space of the wastewater holding bin and the wastewater content, thereby presenting the state of wastewater contained in the wastewater holding bin based on the wastewater space, so as to facilitate subsequent treatment of the wastewater in the wastewater space and ensure control of the wastewater space.

[0105] Furthermore, the wastewater space is introduced, and the wastewater input is marked based on the wastewater space. Multiple wastewater subspaces are divided according to the wastewater space and the wastewater input, so as to be compatible with the overall consideration of the wastewater space and the wastewater input, thereby introducing multiple wastewater subspaces, realizing subsequent processing of the multiple wastewater subspaces, and then defining corresponding center points based on the multiple wastewater subspaces, and constructing a circular detection path based on the multiple center points; according to the circular detection path and the corresponding wastewater detection points marked by the multiple wastewater subspaces, the positioning of the wastewater detection points is realized, so as to be compatible with the overall consideration of the circular detection path and the multiple wastewater subspaces, and the positioning accuracy of the wastewater detection points is guaranteed, so as to adapt to the overall detection of the wastewater space.

[0106] refer to Figure 4 In step S13, a fixed-point detection of wastewater is triggered according to each wastewater detection point, and a plurality of wastewater detection data are collected; a wastewater component system in the wastewater holding tank is constructed according to the plurality of wastewater detection data and the detection positions of the corresponding wastewater detection points;

[0107] In the specific implementation process of the present invention, the specific steps may be:

[0108] S131: freeze each wastewater detection point;

[0109] S132: matching corresponding detection probes based on each wastewater detection point, and performing fixed-point detection according to each detection probe to trigger the fixed-point detection of wastewater;

[0110] S133: outputting a corresponding detection table based on the fixed-point detection of wastewater, and determining a plurality of wastewater detection data according to the screening of the detection table;

[0111] S134: Collect multiple wastewater detection data; associate multiple wastewater detection data with detection positions of corresponding wastewater detection points;

[0112] S135: constructing a wastewater composition framework based on multiple wastewater detection data, and constructing a wastewater composition system in the wastewater holding tank according to the wastewater composition framework and the detection positions of the corresponding wastewater detection points.

[0113] In an embodiment of the present application, each wastewater detection point is frozen to facilitate positioning of each wastewater detection point, thereby matching the corresponding detection probe based on each wastewater detection point, and performing fixed-point detection based on each detection probe to trigger fixed-point detection of wastewater. At this time, the positioning of the detection probe is triggered based on each wastewater detection point, and positioning detection is performed on each detection probe, so as to facilitate online detection of each wastewater detection point.

[0114] At this time, fixed-point detection of wastewater is introduced, and a corresponding detection table is output based on the fixed-point detection of wastewater. The detection table serves as the detection result of the wastewater detection point on the wastewater at that location, and is presented in the form of a table to facilitate determination of multiple wastewater detection data based on the screening of the detection table, thereby introducing multiple wastewater detection data, which include the composition of the wastewater, the content of each component, the degree of pollution of the wastewater, and so on.

[0115] Furthermore, multiple wastewater detection data are collected; multiple wastewater detection data and the detection positions of corresponding wastewater detection points are associated, so as to match the corresponding positions for multiple wastewater detection data, thereby positioning and presenting the multiple wastewater detection data in the wastewater space, and at the same time, a wastewater component framework is constructed based on the multiple wastewater detection data, and a wastewater component system in the wastewater holding tank is constructed according to the wastewater component framework and the detection positions of the corresponding wastewater detection points, thereby clarifying the wastewater component system, so as to present the overall composition and the corresponding content based on the wastewater component system. Optionally, the wastewater component system is presented as a whole of the wastewater space, and the overall composition and the corresponding content are presented.

[0116] refer to Figure 5 , S14: defining a preset condensed water output based on the wastewater content and the wastewater evaporation equipment, and constructing a corresponding evaporation logic according to the preset condensed water output and the wastewater component system;

[0117] In the specific implementation process of the present invention, the specific steps may be:

[0118] S141: Determine the wastewater content and define the wastewater content level according to the wastewater content;

[0119] S142: Collect the condensate output efficiency table of the wastewater evaporation equipment;

[0120] S143: matching corresponding condensed water output efficiency according to the condensed water output efficiency table and the wastewater content level;

[0121] S144: defining a preset condensed water output amount based on the condensed water output efficiency and the waste water content;

[0122] S145: Associating the preset condensate output and wastewater component system, defining key evaporation components according to the wastewater component system, and defining a first evaporation means based on the content of the key evaporation components; defining a second evaporation means according to the preset condensate output and wastewater content, and constructing corresponding evaporation logic according to the second evaporation means and the first evaporation means.

[0123] In the embodiments of the present application, the wastewater content is fixed so as to clarify the wastewater content, thereby controlling the wastewater content, so as to define the wastewater content level according to the wastewater content, and then present the wastewater content level.

[0124] At this time, the condensation water output efficiency table of the wastewater evaporation equipment is collected to match the corresponding condensation water output efficiency table based on the basic information of the wastewater evaporation equipment, so that the condensation water output efficiency of the wastewater evaporation equipment is presented through the condensation water output efficiency table, so as to match the corresponding condensation water output efficiency according to the condensation water output efficiency table and the wastewater content level, so as to control the condensation water output efficiency for subsequent optimization processing.

[0125] Therefore, the preset condensed water output is defined based on the condensed water output efficiency and the waste water content, so that the condensed water output efficiency and the waste water content are controlled in multiple dimensions, so as to facilitate overall consideration of multiple dimensions for the preset condensed water output, thereby ensuring the accuracy of the preset condensed water output for subsequent reference.

[0126] Furthermore, the preset condensate output and wastewater component system are associated, and key evaporation components are defined according to the wastewater component system, so as to focus on monitoring the key evaporation components, thereby defining the first evaporation means based on the content of the key evaporation components; the second evaporation means is defined according to the preset condensate output and wastewater content, and the corresponding evaporation logic is constructed according to the second evaporation means and the first evaporation means. Optionally, the evaporation logic presents the evaporation process and corresponding evaporation parameters of the wastewater evaporation equipment for the wastewater, so as to trigger the intelligent evaporation process of the wastewater evaporation equipment along the operation of the evaporation logic, and is compatible with the overall consideration of the content of the key evaporation components, the preset condensate output and the wastewater content, and fully controls the evaporation process and the corresponding evaporation parameters in multiple dimensions, so as to achieve targeted evaporation treatment of the wastewater.

[0127] refer to Figure 6 , S15: During the operation of the evaporation logic, the evaporation attenuation of the wastewater component system at a preset time is monitored, and an attenuation factor is defined according to the evaporation attenuation and the service life of the wastewater evaporation equipment;

[0128] In the specific implementation process of the present invention, the specific steps may be:

[0129] S151: During the operation of the evaporation logic, real-time evaporation monitoring of the wastewater component system is performed;

[0130] S152: Collecting the evaporation amount of the wastewater component system within a preset time;

[0131] S153: comparing the evaporation amount with a preset evaporation amount, and defining an evaporation difference amount;

[0132] S154: collecting a plurality of evaporation difference amounts, and defining an evaporation attenuation amount based on the plurality of evaporation difference amounts;

[0133] S155: The service life of the wastewater evaporation equipment;

[0134] S156: Match the theoretical evaporation attenuation according to the service life of the wastewater evaporation equipment;

[0135] S157: Match the corresponding attenuation detection based on the comparison between the evaporation attenuation amount and the theoretical evaporation attenuation amount, and perform real-time attenuation detection on the evaporation logic to mark the severely attenuated part in the evaporation logic, and define the attenuation factor according to the severely attenuated part.

[0136] In an embodiment of the present application, during the operation of the evaporation logic, the wastewater component system is monitored for evaporation in real time to facilitate real-time monitoring of the evaporation of wastewater and to achieve targeted evaporation based on the wastewater component system. At the same time, the evaporation amount of the wastewater component system at a preset time is collected to facilitate comparison of the evaporation amount with the preset evaporation amount, and to define an evaporation difference amount, thereby introducing an evaporation difference amount, and presenting the difference between the evaporation amount and the preset evaporation amount through the evaporation difference amount.

[0137] Furthermore, multiple evaporation difference quantities are collected so that they can be dynamically calculated based on the multiple evaporation difference quantities, thereby controlling the multiple evaporation difference quantities, and then defining the evaporation attenuation quantity based on the multiple evaporation difference quantities, thereby realizing the output of the evaporation attenuation quantity, and controlling the accuracy of the evaporation attenuation quantity to ensure the overall calculation of the multiple evaporation difference quantities.

[0138] At this time, the service life of the wastewater evaporation equipment is collected, and the theoretical evaporation attenuation is matched according to the service life of the wastewater evaporation equipment, thereby introducing the theoretical evaporation attenuation, which is estimated based on the wastewater evaporation equipment and the corresponding service life.

[0139] Furthermore, the evaporation attenuation and the theoretical evaporation attenuation are compared so as to output a corresponding comparison result based on the comparison between the evaporation attenuation and the theoretical evaporation attenuation, thereby matching the corresponding attenuation detection based on the comparison between the evaporation attenuation and the theoretical evaporation attenuation, and performing real-time attenuation detection on the evaporation logic so as to control the abnormal part in the evaporation logic, thereby marking the severely attenuated part in the evaporation logic, and defining the attenuation factor according to the severely attenuated part, further optimizing the attenuation factor, and triggering the self-optimization control of the attenuation section.

[0140] refer to Figure 7 , S16: defining a corresponding attenuation section according to the attenuation factor, associating the attenuation section based on multiple adjacent sections, building a collaborative section system, and triggering self-optimization control of the attenuation section based on the collaborative section system and the self-control system of the attenuation section;

[0141] In the specific implementation process of the present invention, the specific steps may be:

[0142] S161: freeze attenuation factor;

[0143] S162: defining a corresponding attenuation section according to the attenuation factor; defining a plurality of adjacent sections according to the attenuation section, and associating the attenuation section based on the plurality of adjacent sections;

[0144] S163: interacting multiple adjacent sections with the attenuation section to define an interaction channel; and constructing a collaborative section system according to the multiple interaction channels;

[0145] S164: freeze the attenuation section, and perform self-detection on the attenuation section to output the self-control part;

[0146] S165: constructing a self-control system of the attenuation section according to the self-control part, the self-control system of the associated attenuation section and the coordination section system;

[0147] S166: Based on the collaborative section system and the self-control system of the attenuation section, the self-optimization control of the attenuation section is triggered to ensure that the final condensate output and the preset condensate output are maintained within a reasonable range.

[0148] In the specific implementation process of the present invention, a preset condensate output is defined based on the wastewater content and the wastewater evaporation equipment, and a corresponding evaporation logic is constructed according to the preset condensate output and the wastewater component system; during the operation of the evaporation logic, the evaporation attenuation of the wastewater component system at a preset time is monitored, and an attenuation factor is defined according to the evaporation attenuation and the service life of the wastewater evaporation equipment; a corresponding attenuation section is defined according to the attenuation factor, and a collaborative section system is constructed based on associating the attenuation section with multiple adjacent sections, and self-optimization control of the attenuation section is triggered based on the collaborative section system and the self-control system of the attenuation section, so as to facilitate the management and control of the attenuation section in multiple dimensions, and joint control is performed based on the collaborative section system and the self-control system of the attenuation section, thereby ensuring multiple optimizations of the attenuation section, so as to ensure that the final condensate output and the preset condensate output are maintained within a reasonable range, thereby achieving the evaporation effect of the wastewater evaporation equipment on the wastewater.

[0149] The attenuation factor is fixed and targeted control is performed on the attenuation factor. Therefore, the corresponding attenuation section is defined according to the attenuation factor, so as to introduce the corresponding attenuation section, so as to further control the corresponding attenuation section. At the same time, multiple adjacent sections are defined according to the attenuation section, and the attenuation section is associated based on the multiple adjacent sections, so as to collaboratively optimize the attenuation section according to the multiple adjacent sections.

[0150] At this time, multiple adjacent work sections are interacted with the attenuation work section to define an interaction channel; based on the interaction channel, multiple adjacent work sections are dynamically interacted with the attenuation work section, and the morphological assistance of multiple adjacent work sections to the attenuation work section is fully utilized, so as to build a collaborative work section system according to multiple interaction channels.

[0151] Therefore, the attenuation section is fixed, and self-detection is performed on the attenuation section to output the self-control part; the self-control system of the attenuation section is constructed according to the self-control part, and the self-control system of the attenuation section and the collaborative section system are associated; based on the collaborative section system and the self-control system of the attenuation section, the self-optimization control of the attenuation section is triggered to facilitate the control of the attenuation section in multiple dimensions, and the collaborative section system and the self-control system of the attenuation section are jointly controlled to ensure the multiple optimization of the attenuation section, so as to ensure that the final condensate output and the preset condensate output are maintained within a reasonable range, and the evaporation effect of the wastewater evaporation equipment on the wastewater is achieved. At the same time, it is ensured that the final condensate output and the preset condensate output are maintained within a reasonable range.

[0152] In an embodiment of the present invention, through the method in the embodiment of the present invention, the wastewater holding bin in the wastewater evaporation equipment is located, and the wastewater content stored in the wastewater holding bin is collected; the wastewater space is defined based on the wastewater content and basic information of the wastewater holding bin, and multiple wastewater detection points are marked according to the wastewater space; fixed-point detection of wastewater is triggered according to each wastewater detection point, and multiple wastewater detection data are collected; a wastewater component system in the wastewater holding bin is constructed according to the multiple wastewater detection data and the detection positions of the corresponding wastewater detection points, thereby defining a corresponding wastewater component system for the wastewater, and realizing overall control of the wastewater component system, so as to facilitate targeted evaporation treatment of the wastewater component system.

[0153] Furthermore, a preset condensate output is defined based on the wastewater content and the wastewater evaporation equipment, and a corresponding evaporation logic is constructed according to the preset condensate output and the wastewater component system; during the operation of the evaporation logic, the evaporation attenuation of the wastewater component system within a preset time is monitored, and an attenuation factor is defined according to the evaporation attenuation and the service life of the wastewater evaporation equipment; a corresponding attenuation section is defined according to the attenuation factor, and a collaborative section system is constructed based on associating the attenuation section with multiple adjacent sections, and self-optimization control of the attenuation section is triggered based on the collaborative section system and the self-control system of the attenuation section, so as to facilitate the control of the attenuation section in multiple dimensions; joint control is performed based on the collaborative section system and the self-control system of the attenuation section, thereby ensuring multiple optimizations of the attenuation section, so as to ensure that the final condensate output and the preset condensate output are maintained within a reasonable range, thereby achieving the evaporation effect of the wastewater evaporation equipment on the wastewater.

[0154] System Example

[0155] See also Figure 8 , Figure 8 It is a schematic diagram of the structural composition of the control system of the wastewater evaporation equipment in the embodiment of the present invention.

[0156] like Figure 8 As shown, a control system of a wastewater evaporation device, the control system of the wastewater evaporation device comprises:

[0157] The collection module 21 is used to locate the wastewater storage bin in the wastewater evaporation device and collect the wastewater content stored in the wastewater storage bin;

[0158] A wastewater detection module 22, for defining a wastewater space based on wastewater content and basic information of the wastewater storage bin, and marking a plurality of wastewater detection points according to the wastewater space;

[0159] The wastewater component system module 23 is used to trigger the fixed-point detection of wastewater according to each wastewater detection point and collect multiple wastewater detection data; and to construct the wastewater component system in the wastewater holding tank according to the multiple wastewater detection data and the detection positions of the corresponding wastewater detection points;

[0160] An evaporation logic module 24 is used to define a preset condensed water output based on the wastewater content and the wastewater evaporation equipment, and to construct a corresponding evaporation logic according to the preset condensed water output and the wastewater component system;

[0161] The attenuation module 25 is used to monitor the evaporation attenuation of the wastewater component system at a preset time during the operation of the evaporation logic, and define the attenuation factor according to the evaporation attenuation and the service life of the wastewater evaporation equipment;

[0162] The self-optimization control module 26 is used to define the corresponding attenuation section according to the attenuation factor, associate the attenuation section based on multiple adjacent sections, build a collaborative section system, and trigger the self-optimization control of the attenuation section based on the collaborative section system and the self-control system of the attenuation section.

[0163] Example

[0164] 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.

[0165] like Fig. 9As 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).

[0166] 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.

[0167] 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 .

[0168] The storage unit 42 may also include a program / utility 424 having a set (at least one) of control modules 425, such control modules 425 including but not limited to: an operating system, one or more application programs, other control modules, and program data, each of which or some combination may include the implementation of a network environment.

[0169] 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.

[0170] 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.

[0171] 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.

[0172] 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.

[0173] In addition, the control method and system of the wastewater evaporation equipment provided in the embodiment 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 idea of ​​the present invention, there will be changes in the specific implementation method and application scope. In summary, the content of this specification should not be understood as a limitation on the present invention.

Claims

1. A control method for wastewater evaporation equipment, characterized in that: Applied to the control scenario of wastewater evaporation equipment; The control method of the wastewater evaporation equipment comprises: Locating a wastewater holding tank in the wastewater evaporation equipment and collecting the wastewater content stored in the wastewater holding tank; Define the wastewater space based on the wastewater content and basic information of the wastewater holding tank, and mark multiple wastewater detection points according to the wastewater space; Triggering fixed-point detection of wastewater according to each wastewater detection point, and collecting multiple wastewater detection data; constructing a wastewater component system in the wastewater holding tank according to the multiple wastewater detection data and the detection positions of the corresponding wastewater detection points; Define the preset condensate output based on the wastewater content and the wastewater evaporation equipment, and build the corresponding evaporation logic according to the preset condensate output and the wastewater composition system; During the operation of the evaporation logic, the evaporation attenuation of the wastewater component system at a preset time is monitored, and the attenuation factor is defined according to the evaporation attenuation and the service life of the wastewater evaporation equipment; Define the corresponding attenuation section according to the attenuation factor, associate the attenuation section based on multiple adjacent sections, build a collaborative section system, and trigger the self-optimization control of the attenuation section based on the collaborative section system and the self-control system of the attenuation section; The preset condensed water output is defined based on the wastewater content and the wastewater evaporation equipment, and the corresponding evaporation logic is constructed according to the preset condensed water output and the wastewater component system, including: Determine the wastewater content and define the wastewater content level according to the wastewater content; Collect the condensate output efficiency table of the wastewater evaporation equipment; Match the corresponding condensate output efficiency according to the condensate output efficiency table and the wastewater content level; Define preset condensate output based on condensate output efficiency and wastewater content; Associating the preset condensate output and wastewater component system, defining the key evaporation component according to the wastewater component system, and defining the first evaporation means based on the content of the key evaporation component; defining the second evaporation means according to the preset condensate output and wastewater content, and constructing the corresponding evaporation logic according to the second evaporation means and the first evaporation means; During the operation of the evaporation logic, the evaporation attenuation of the wastewater component system at a preset time is monitored, and the attenuation factor is defined according to the evaporation attenuation and the service life of the wastewater evaporation equipment, including: During the operation of the evaporation logic, the wastewater component system is monitored for evaporation in real time; Collect the evaporation amount of the wastewater component system at a preset time; The evaporation amount is compared with a preset evaporation amount, and an evaporation difference amount is defined; A plurality of evaporation difference amounts are collected, and an evaporation attenuation amount is defined based on the plurality of evaporation difference amounts.

2. The control method of the wastewater evaporation equipment according to claim 1, characterized in that: The method of locating the wastewater storage bin in the wastewater evaporation device and collecting the wastewater content stored in the wastewater storage bin includes: Collection of wastewater evaporation equipment; Traverse the wastewater evaporation equipment and collect the spatial location of the wastewater storage tank; locating the wastewater holding bin based on the spatial location of the wastewater holding bin; The current storage position of the wastewater is defined based on the capacity detection of the wastewater storage bin, and the wastewater content stored in the wastewater storage bin is defined according to the current storage position of the wastewater to collect the wastewater content stored in the wastewater storage bin.

3. The control method of the wastewater evaporation equipment according to claim 2, characterized in that: The wastewater space is defined based on the wastewater content and basic information of the wastewater storage tank, and multiple wastewater detection points are marked according to the wastewater space, including: Fixed wastewater content; Collect basic information of the wastewater holding tank, and construct a three-dimensional space of the wastewater holding tank based on the basic information of the wastewater holding tank; Further improve the three-dimensional space of the wastewater holding tank based on the internal contour of the wastewater holding tank; Associating the three-dimensional space of the wastewater holding bin and the wastewater content, and defining the wastewater space according to the three-dimensional space of the wastewater holding bin and the wastewater content; Mark the wastewater input location based on the wastewater space, and divide the wastewater space and the wastewater input location into multiple wastewater subspaces; Based on the corresponding center points defined in the multiple wastewater subspaces, a circular detection path is constructed based on the multiple center points; and the corresponding wastewater detection points are marked according to the circular detection path and the multiple wastewater subspaces.

4. The control method of the wastewater evaporation equipment according to claim 3, characterized in that: The fixed-point detection of wastewater is triggered according to each wastewater detection point, and a plurality of wastewater detection data are collected; A wastewater composition system in a wastewater holding tank is constructed based on multiple wastewater detection data and detection locations of corresponding wastewater detection points, including: Freeze each wastewater testing point; Match the corresponding detection probe based on each wastewater detection point, and perform fixed-point detection according to each detection probe to trigger the fixed-point detection of wastewater; Outputting a corresponding detection table based on the fixed-point detection of wastewater, and determining a plurality of wastewater detection data according to the screening of the detection table; Collect multiple wastewater detection data; associate multiple wastewater detection data and detection locations of corresponding wastewater detection points; A wastewater composition framework is constructed based on a plurality of wastewater detection data, and a wastewater composition system in a wastewater holding tank is constructed according to the wastewater composition framework and detection positions of corresponding wastewater detection points.

5. The control method of the wastewater evaporation equipment according to claim 4, characterized in that: During the operation of the evaporation logic, the evaporation attenuation of the wastewater component system at a preset time is monitored, and the attenuation factor is defined according to the evaporation attenuation and the service life of the wastewater evaporation equipment, and also includes: The service life of the equipment used to collect and evaporate wastewater; Match the theoretical evaporation attenuation according to the service life of the wastewater evaporation equipment; Based on the comparison between the evaporation attenuation and the theoretical evaporation attenuation, the corresponding attenuation detection is matched, and the real-time attenuation detection is performed on the evaporation logic to mark the severely attenuated part in the evaporation logic, and the attenuation factor is defined according to the severely attenuated part.

6. The control method of the wastewater evaporation equipment according to claim 5, characterized in that: The method of defining a corresponding attenuation section according to the attenuation factor, associating the attenuation section based on a plurality of adjacent sections, building a coordinated section system, and triggering self-optimization control of the attenuation section based on the coordinated section system and the self-control system of the attenuation section includes: Freeze-frame attenuation factor; A corresponding attenuation section is defined according to the attenuation factor; multiple adjacent sections are defined according to the attenuation section, and the attenuation section is associated based on the multiple adjacent sections; Multiple adjacent work sections are interacted with the attenuation work section to define an interaction channel; and a collaborative work section system is constructed based on the multiple interaction channels.

7. The control method of the wastewater evaporation equipment according to claim 6, characterized in that: The method further includes defining a corresponding attenuation section according to the attenuation factor, associating the attenuation section based on a plurality of adjacent sections, building a coordinated section system, and triggering self-optimization control of the attenuation section based on the coordinated section system and the self-control system of the attenuation section. Freeze the attenuation section and perform self-detection on the attenuation section to output the self-control part; According to the self-control part, the self-control system of the attenuation section, the self-control system of the associated attenuation section and the coordinated section system are constructed; Based on the collaborative section system and the self-control system of the attenuation section, the self-optimization control of the attenuation section is triggered to ensure that the final condensate output and the preset condensate output are maintained within a reasonable range.

8. A control system for wastewater evaporation equipment, characterized in that: The control system of the wastewater evaporation equipment is applied to the control method of the wastewater evaporation equipment as claimed in any one of claims 1 to 7, and the control system of the wastewater evaporation equipment includes: A collection module, used to locate the wastewater storage bin in the wastewater evaporation equipment and collect the wastewater content stored in the wastewater storage bin; A wastewater detection module, used to define a wastewater space based on wastewater content and basic information of a wastewater storage tank, and mark multiple wastewater detection points according to the wastewater space; The wastewater composition system module is used to trigger the fixed-point detection of wastewater according to each wastewater detection point and collect multiple wastewater detection data; and to construct the wastewater composition system in the wastewater holding tank according to the multiple wastewater detection data and the detection positions of the corresponding wastewater detection points; An evaporation logic module is used to define a preset condensed water output based on the wastewater content and the wastewater evaporation equipment, and to construct a corresponding evaporation logic according to the preset condensed water output and the wastewater composition system; The attenuation module is used to monitor the evaporation attenuation of the wastewater component system at a preset time during the operation of the evaporation logic, and define the attenuation factor according to the evaporation attenuation and the service life of the wastewater evaporation equipment; The self-optimization control module is used to define the corresponding attenuation section according to the attenuation factor, associate the attenuation section based on multiple adjacent sections, build a collaborative section system, and trigger the self-optimization control of the attenuation section based on the collaborative section system and the self-control system of the attenuation section.

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