TW201546747A - System for diagnosing wastewater, apparatus for diagnosing wastewater and method for processing wastewater data - Google Patents

Abstract

A system for diagnosing wastewater, the system includes a terminal device and a cloud data processing center. The terminal device captures a microscopic image data of microbiota form a water sample, and converts the microscopic image data into a transmittal massage. The cloud data processing center receives the transmittal massage, and performs an operation of analysis and comparison in response to the transmittal massage. After the operation of analysis and comparison, the cloud data processing center transmits a replied massage related the biological treatment process to the terminal device. Moreover, the diagnostician can take the information of diagnostic conclusion and treatment process immediately, and improve the condition of wastewater according the information. Therefore, an apparatus for diagnosing wastewater and a method for processing wastewater data are disclosed in the present invention.

Description

Wastewater diagnosis system, wastewater diagnostic device and wastewater data processing method

The invention relates to a wastewater diagnosis system, a wastewater diagnosis device and a wastewater data processing method, and particularly relates to a wastewater diagnosis system, a device and a wastewater data processing method for determining a microbial phase using a microscopic image analysis capability of a cloud.

The wastewater biological treatment system can be basically divided into two types: anaerobic treatment and aerobic treatment, wherein anaerobic treatment is often used in high-concentration wastewater, and aerobic treatment is commonly used in the industry. In addition, biological aerobic treatment is divided into various treatment procedures, such as activated sludge method, contact oxidation method, oxidized deep channel method, constructed wetland, ecological method, etc., and its selection can be based on the individual characteristics of each program. Environmental conditions such as rivers, lakes, reservoirs, wastewater treatment plants, and drainage facilities are considered and determined.

Moreover, most of the water quality problems are caused by changes in the microbial phase. The general wastewater improvement system usually adopts a biological treatment method as a means for improving the wastewater, and the biological treatment method mainly promotes the microbial metabolism function in the wastewater, so that the microbial phase in the wastewater can be restored to a normal water quality state. Thus, the nature of the water quality problem and the corresponding improvement conditions can be comprehensively understood by the observation system of the microorganism phase.

Nowadays, the microscope is usually used in the industry to observe the microbial phase in the wastewater, and then to judge the type, quantity, type, etc. of the microbial phase in the wastewater. Finally, with reference to these data, the corresponding biological treatment operation is carried out on the wastewater, thereby achieving water quality improvement. The purpose of recovery.

However, there are many kinds of microbial phases in wastewater. Observers usually need to take microscopic photographs of water samples first, and then manually compare the microbial comparison tables to determine the dominant microorganisms in the micrographs. The type, type and quantity of phases. Finally, the relationship between the microbial phase and the biological treatment method is manually searched to determine the corresponding biological treatment method.

When such a complicated waste water treatment method will cause an abnormality in the wastewater treatment system, the operator cannot immediately respond to the abnormal situation and immediately restore the normal operation of the wastewater treatment system.

In view of this, the present invention provides a wastewater diagnostic system that utilizes cloud computing technology to transmit a microscopic image of a microbial phase captured by a terminal to a cloud data processing center. Through cloud computing, the terminal instantly presents the results of cloud computing, including the type, type, quantity, and corresponding biological processing information of the microbial phase.

According to an embodiment, the wastewater diagnostic system of the present invention includes a terminal device and a cloud data processing center. The terminal device is configured to capture microscopic image data of a microbial phase in a water sample to be tested, and convert the microscopic image data into a transmission information and send it to a cloud data processing center. The cloud data processing center performs microbial phase analysis and comparison calculation on the transmitted information, and replies the corresponding biological processing information to the terminal device according to the analysis and the comparison result.

According to an embodiment, the wastewater diagnostic apparatus of the present invention comprises: an image capturing unit, a memory module, a processing module and a display module. The image capturing unit captures microscopic image data of the microorganism phase in the water sample to be tested. The memory module is used to store microbial phase data and biological processing information. The processing module is connected to the image capturing unit and the memory module, and is used for compressing the microscopic image data into a sending information, and comparing the microbial phase data in the memory module according to the transmitted information, and the result of the comparison search. The biological processing information corresponding to the transmitted information is found in the memory module. The display module is coupled to the processing module and is configured to provide display of microscopic images and/or biological processing information.

According to another embodiment, the terminal data processing method for wastewater diagnosis according to the present invention is executed by a terminal device, and the steps include: the terminal device extracts microscopic image data of the microorganism phase in the water sample to be tested; and then, the terminal device The microscopic image data is converted into a transmission information; then, the terminal device transmits the transmission information to the cloud data processing center; and then, the terminal device receives the corresponding biological processing information from the cloud data processing center.

According to still another embodiment, the remote data processing method for wastewater diagnosis of the present invention is executed by a cloud data processing center, and the steps include: the cloud data processing center receives the sending information from the terminal device; and then, the cloud data processing center sends the data. The information is analyzed and compared by the microbial phase; in addition, the cloud data processing center transmits the corresponding biological processing information to the terminal device according to the analysis and the comparison result.

In summary, the wastewater diagnosis system described in the embodiment of the present invention performs image comparison operation on the microbial phase through cloud computing technology to find the dominant microbial phase. Then, the corresponding biological treatment strategy is searched according to the dominant microbial phase, and the type, type, quantity and corresponding biological treatment information including the microbial phase are sent to the terminal for presentation.

Thus, when the wastewater treatment system is abnormal and the wastewater is generated, the wastewater diagnosis system described in the present invention can quickly provide the cause of the operator-related anomaly and the corresponding improvement method, so that the operator can immediately resume the normal operation of the wastewater treatment system.

The detailed description of the present invention and the accompanying drawings are to be understood by the claims The scope is subject to any restrictions.

Please refer to Figure 1. FIG. 1 is a schematic structural view of a wastewater diagnostic system according to an embodiment of the present invention. The wastewater diagnostic system 1 relates to a cloud computing processing technology. Further, the wastewater diagnostic system 1 uses the cloud analysis, the comparison computing capability, and the cloud data management capability to allow the operator to quickly obtain an abnormality in the event of an abnormality in the wastewater treatment system. The reason and the corresponding wastewater treatment strategy are to solve the manpower and time that the traditional industry needs to manually find the cause of the abnormality and the corresponding processing strategy.

The wastewater diagnostic system 1 includes a terminal device 10 and a cloud data processing center 14, wherein the terminal device 10 and the cloud data processing center 14 can be connected to each other through an Internet 12 and communicate with each other via the Internet 12. Communication, the aforementioned Internet 12 system uses the TCP/IP protocol. However, the Internet 12 is not the only limitation of the present invention, and any network capable of communicating data between the terminal device 10 and the cloud data processing center 14 in a wireless or wired manner is within the scope of the present invention. For example, a local area network (LAN), a wireless local area network (WLAN), a public switched telephone network (PSTN), a wireless network (Wireless Network), and the like.

The terminal device 10 is configured to capture the microscopic image data D1 of the microbial phase M1 in the water sample 13 to be tested, and convert the microscopic image data D1 into a transmission information D2. The water sample 13 to be tested can be obtained from various wastewater treatment systems. For example, in the wastewater treatment system of the activated sludge process, the observer can obtain the water sample 13 to be tested at the aeration tank near the outlet using a handle or a water collector.

The terminal device 10 includes an image capturing unit 102 and a terminal computing unit 104. The image capturing unit 102 is connected to the terminal computing unit 104. The image capturing unit 102 can transmit the microscopic image data D1 to the terminal computing unit 104, and the terminal computing unit 104 can perform functional control on the image capturing unit 102, for example, Functional adjustment control such as magnification, shooting distance, and shooting angle. The functional adjustment of the image capturing unit 102 can also be accomplished by its own adjustment component, such as a rotary button.

The terminal device 10 may be an individual hand-held integrated device, such as a portable waste water diagnostic device, or composed of two or more individual devices, for example, a camera microscope and a notebook computer. Therefore, any individual device or combination device having microscopic image capturing capability, computing power and communication capability is within the scope of the invention.

As shown in FIG. 1 , the image capturing unit 102 performs microscopic image capturing on the water sample 13 to be tested on a slide 15 , and the image capturing unit 102 can be microscopically observed to be tested after being adjusted by appropriate functions. The microbial phase M1 in the water sample 13 can be photographed by the image capturing unit 102 by the execution of the photographing function, and the corresponding microscopic image data D1 can be produced. The image capturing unit 102 can transmit the microscopic image data D1 to the terminal computing unit 104 and present a video image of the microbial phase M1 on the terminal computing unit 104. The terminal computing unit 104 performs a compression operation on the microscopic image data D1 to become the transmission information D2.

The terminal computing unit 104 sends the transmission information D2 to the remote cloud data processing center 14 via the Internet 12. The cloud data processing center 14 performs an analysis operation on the transmission information D2, and further determines the type and number of various microbial phases M1 in the water sample 13 to be tested. The cloud data processing center 14 performs a comparison operation according to the determined M1 type of various microbial phases, which is compared with the pre-existing microbial phase in the database, thereby determining the various microbial phases M1 in the water sample 13 to be tested. kind. For example, hair whipworms, bell-shaped worms. The cloud data processing center 14 further determines the dominant microbial phase in the water sample 13 to be tested according to the type and quantity of the microbial phase M1, and performs a search operation according to the dominant microbial phase to find the corresponding biological treatment information D3, wherein the biological treatment Information D3 is a related biological treatment strategy for treating wastewater problems.

The cloud data processing center 14 transmits the corresponding biological processing information D3 to the terminal device 10 via the Internet 12. In this way, the terminal device 10 can present related data such as the type, type and quantity of various microbial phases M1 in the water sample 13 to be tested, and related biological treatment strategies for treating wastewater problems.

Refer to Table 1. Table 1 shows the correlation table between the microbial phase and the treatment strategy for biofilm treatment. As shown in Table 1, when the operation determines that the dominant microorganisms in the water sample 13 to be tested are: 1. Paramecium 2. Pea worm 3. Nematode 4. Animal flagellate 5. Bomby 6. Balloon house In the case of trichomoniasis, the corresponding biological treatment strategy is: 1. Increase the pre-treatment efficiency to reduce the load 2. Perform the backwashing action 3. If it is the contact aeration tank, increase the aeration amount.

Please refer to Figure 2. 2 is a functional block diagram of a wastewater diagnostic system according to an embodiment of the present invention. The image capturing unit 102 of the terminal device 10 used in this embodiment includes a microscope 1020, a camera 1022 and an analog-to-digital converter 1024. The microscope 1020 provides an observation magnification to perform microscopic magnification of an object to be measured to provide an observer to observe the microscopic state of the object to be tested. In this embodiment, the microorganism phase in the water sample to be tested is mainly used as the analyte. Therefore, all devices capable of being used as microscopic observations of microorganisms are within the scope of the present invention.

Please refer to Figure 3. Fig. 3 is a schematic view showing the photo of the microorganism phase under the microscope according to an embodiment of the present invention. Fig. 3 discloses the M1 type of microbial phase such as Paramecium A and Bell-shaped B observed under the microscope 1020.

The camera 1022 is coupled to the microscope 1020 for capturing an image of the microbial phase amplified by the microscope 1020. In this embodiment, the camera 1022 is a CCD camera using a photosensitive-coupled device (CCD) imaging technology or a complementary metal-oxide-semiconductor (CMOS) imaging technology. CMOS camera. However, the above two imaging techniques are not the only limitation of the present invention, and any camera 1022 capable of capturing a microbial phase amplified by the microscope 1020 is within the scope of the present invention.

The analog digital converter 1024 mainly converts the analog image of the microbe phase captured by the camera 1022 into a digital image. In addition, the analog digital converter 1024 can also be integrated in the camera 1022 to allow the camera 1022 to directly generate digital images, and the camera 1022 is a digital camera. Therefore, the analog digital converter 1024 can be arbitrarily structurally integrated or separated from the camera 1022.

Accordingly, after the microscope 1020 in the image capturing unit 102 is appropriately adjusted, the microbial phase M1 in the water sample 13 to be tested can be microscopically amplified. The camera 1022 can take an image of the enlarged microbial phase M1 and prepare a corresponding digital microscopic image data D1.

Refer to Figure 2 again. The terminal unit 10 used in this embodiment includes a processing module 1042 and a communication module 1046. The processing module 1042 is connected between the image capturing unit 102 and the communication module 1046. The processing module 1042 obtains the digital microscope image data D1 from the image capturing unit 102, compresses it into the transmission information D2, and transmits it to the communication module 1046. The communication module 1046 transmits the transmission information D2 to the cloud data processing center 14 via the Internet 12, and receives the biological processing information D3 sent from the cloud data processing center 14 via the Internet 12.

The communication module 1046 can select, for example, Global System for Mobile Communications (GSM), 3rd Generation (3G), High Speed Packet Data Access (HSPA), Long Term Evolution (LTE) technology. (Long Term Evolution; LTE) Different data communication transmission technologies such as Worldwide Interoperability for Microwave Access (WiMax). However, the foregoing communication transmission technology is not the only limitation of the present invention, and any communication module capable of data transmission communication with the cloud data processing center 14 via the Internet 12 is within the scope of the present invention.

Refer to Figure 2 again. The processing module 1042 of the terminal computing unit 104 is further connected to a memory module 1044, a display module 1040 and an input module 1048. The memory module 1044 is used for providing data storage. The display module 1040 can be used to present a microscopic image of the microbial phase M1, and can also be used to present the biological processing information D3 sent from the cloud data processing center 14. The input module 1048 is configured to transmit the control command S1 to the processing module 1042. The processing module 1042 can drive the image capturing unit 102 to perform functional adjustment operations such as magnification, shooting distance, and shooting angle according to the control command S1.

In addition, the input module 1048 can further transmit a condition setting value S2 to the processing module 1042. The condition setting value S2 includes: a 30 minute sedimentation index (SV30), a dissolved oxygen index (DO), and a pH index (PH) of the sludge. ), electrical conductivity (EC), total dissolved solids (TDS), salinity (Salt), redox store (ORP), water color, acidity, alkalinity, hardness, turbidity, metal ion concentration, phosphorus Content, nitrogen content, sulfur content, chlorine content, sludge color, sludge reflux ratio (sludge amount/wastewater amount), chemical oxygen demand (COD), biochemical oxygen demand (Biochemical Oxygen Demand; At least one selected from the group consisting of BOD), suspended solids content (SS), and the like, and the data can be obtained by related on-site detection means, which is commonly used in general wastewater treatment. Technology will not be described here.

The other embodiment of the processing module 1042 can be used to integrate and calculate the foregoing condition setting value S2 and the digitalized microscopic image data D1 obtained from the image capturing unit 102, and integrate and compress the information into the transmitting information D2'. Go to the communication module 1046. The communication module 1046 transmits the transmission information D2' to the cloud data processing center 14 via the Internet 12, and receives the biological processing information D3' sent from the cloud data processing center 14 via the Internet 12.

Refer to Figure 2 again. The cloud data processing center 14 includes a server host 140 and a database 142. The server 140 and the database 142 are connected to each other, and the database 142 includes a microbial phase data table 1420 and a biological processing information table 1422.

The server 140 receives the transmission information D2 and D2' transmitted from the terminal device 10 via the Internet 12, and compares the microbial phase data table 1420 pre-stored in the search database 142 according to the transmission information D2, D2', and according to the ratio. The result of the search is obtained from the biological treatment information table 1422 in the database 142 to obtain the corresponding biological treatment information D3, D3'. In the foregoing, the microbial phase data table 1420 pre-stores various microbial phase data, for example, contour features of the microbial phase. The biological treatment information table 1422 stores in advance biological treatment countermeasure data corresponding to various dominant microorganisms, and refers to Table 1 above.

Further, the servo host 140 executes an internal operating system and analyzes the transmitted information D2, D2' and the microbial phase data table 1420 stored in the database 142, which analyzes the type and quantity of the microbial phase. To determine the type of dominant microbial phase represented by the transmitted information D2, D2'. Next, the servo host 140 compares the type of the dominant microbial phase with the microbial phase data pre-stored in the microbial phase data table 1420 to determine the biological species represented by the dominant microbial phase. Then, the servo host 140 searches the operational biological treatment information table 1422 based on the biological species of the dominant microbial phase to find the corresponding biological treatment information D3, D3'. Finally, the server 140 sends the bioprocessing information D3, D3' to the terminal device 10 via the Internet 12, and presents the contents of the bioprocessing information D3, D3' to the terminal device 10.

In addition, the terminal device 10 can also be a portable wastewater diagnostic device, such as a mobile phone, a tablet, a notebook computer, etc., to provide an observer with the ability to analyze and compare the portable wastewater diagnostic device in the wastewater field. The ability to enable the operator to quickly obtain the cause of the abnormality and the corresponding wastewater treatment strategy in the event of an abnormality in the wastewater treatment system, in order to instantly restore the normal operation of the wastewater treatment system, thereby effectively improving the manpower and time brought by the traditional manual comparison. The shortcomings of cost.

Refer to Figure 2 again. When the terminal device 10 constitutes a wastewater diagnostic device, it includes an image capturing unit 102, a memory module 1044, a processing module 1042, and a display module 1040. The image capturing unit 102 includes a microscope 1020, a camera 1022, and an analog-to-digital converter 1024. The image capturing unit 102 is mainly used to capture the microscopic image data D1 of the microorganism phase M1 in the water sample 13 to be tested. I will not repeat them here. The memory module 1044 stores the microbial phase data and the biological processing information. Further, the memory module 1044 prestores the microbial phase data table of various microbial phase data and the biological processing information table of the biological treatment countermeasure data corresponding to various dominant microorganisms. .

The processing module 1042 is connected to the image capturing unit 102 and the memory module 1044, and is configured to compress the microscopic image data D1 into the transmission information D2, and compare the microbial phase data in the memory module 1044 according to the transmission information D2, and The biological processing information corresponding to the transmission information D2 is found from the memory module 1044 according to the result of the comparison search, and the related description is as described above, and details are not described herein again. In addition, the display module 1040 is connected to the processing module 1042 and is used to provide a display of microscopic images and/or biological processing information. The related description is as described above, and details are not described herein again.

Refer to Figure 2 again. When the terminal device 10 constitutes a wastewater diagnostic device, it further includes an input module 1048. The input module 1048 is coupled to the processing module 1042 and configured to provide a condition setting value to the processing module 1042. The processing module 1042 integrates the condition setting value and the microscopic image data D1 and compresses it into the transmission information D2. The related description is as described above, and details are not described herein again.

With reference to Fig. 1 and Fig. 2, refer to Fig. 4. 4 is a flow chart of a method for processing terminal data for wastewater diagnosis according to an embodiment of the present invention. The terminal data processing method of the present invention is executed by the terminal device 10, and the method will be described below.

First, the terminal device 10 extracts the microscopic image data D1 of the microbial phase M1 in the water sample 13 to be tested (S100). Then, the terminal device 10 performs data conversion on the microscopic image data D1, and converts the analog image of the microbial phase M1 into a digital image (S102). Next, the terminal device 10 executes an image compression program for compressing the microscopic image data D1 into the transmission information D2 (S104). Further, the terminal device 10 may integrate the condition setting value S2 and the microscopic image data D1 and compress it into the transmission information D2' (S105). Next, the terminal device 10 transmits the transmission information D2, D2' to the cloud data processing center 14 (S106). Subsequently, the terminal device 10 can receive the corresponding biological processing information D3 from the cloud data processing center 14 (S108), and then present or display the content of the biological processing information D3 (S110).

With reference to Fig. 1 and Fig. 2, refer to Fig. 5. FIG. 5 is a flow chart of a remote data processing method for wastewater diagnosis according to an embodiment of the present invention. The remote data processing of the present invention is performed by the cloud data processing center 14, and the method is explained as follows.

First, the cloud data processing center 14 receives the transmission information D2 from the terminal device 10 (S200), and then performs microbial phase analysis and comparison operation on the transmission information D2, wherein the cloud data processing center 14 performs image analysis operations to determine The type and number of the microorganism phase M1 represented by the transmission information D2 are transmitted (S202). Next, the cloud data processing center 14 performs a comparison operation by comparing the type of the microorganism phase represented by the transmission information D2 with the pre-stored microbial phase data (S204). Then, the cloud data processing center 14 searches for the corresponding biological processing information D3 based on the result of the comparison step (S204) (S206), and transmits the biological processing information D3 to the terminal device 10 (S208).

In summary, the wastewater diagnostic system 1 described in the embodiments of the present invention uses cloud computing technology to analyze and compare abnormal wastewater samples, thereby finding an entire class of dominant microbial phases in abnormal wastewater samples. Then through the cloud search computing technology to find the corresponding wastewater biological treatment strategy.

In this way, the wastewater diagnosis system 1 described in the embodiment of the present invention enables the operator to quickly obtain the abnormal cause and corresponding situation when the wastewater treatment system is abnormal due to the analysis of the cloud, the comparison computing capability, and the data management capability of the cloud. The wastewater treatment strategy is to restore the normal operation of the wastewater treatment system in an instant, thereby effectively improving the shortcomings of the traditional manpower and time consumption caused by manual comparison.

The above description is only an embodiment of the present invention, and is not intended to limit the scope of the invention.

1‧‧‧Wastewater diagnostic system
10‧‧‧ Terminal devices
102‧‧‧Image capture unit
1020‧‧•Microscope
1022‧‧‧ camera
1024‧‧‧ analog digital converter
104‧‧‧terminal arithmetic unit
1040‧‧‧ display module
1042‧‧‧Processing module
1044‧‧‧Memory Module
1046‧‧‧Communication module
1048‧‧‧Input module
12‧‧‧Internet (Internet)
13‧‧‧ water sample to be tested
M1‧‧‧Microbial phase
14‧‧‧Cloud Data Processing Center
140‧‧‧Servo host
142‧‧‧Database
1420‧‧‧Microbiological phase data sheet
1422‧‧‧ Biological Treatment Information Sheet
15‧‧‧ slides
D1‧‧‧microscopic image data
D2, D2'‧‧‧ Sending information
D3, D3'‧‧‧ Biological treatment information
S1‧‧‧ control instructions
S2‧‧‧ condition setting
S100~S108‧‧‧Steps
S200~S208‧‧‧Steps

1 is a schematic structural view of a wastewater diagnostic system according to an embodiment of the present invention; [FIG. 2] is a functional block diagram of a wastewater diagnostic system according to an embodiment of the present invention; [FIG. 3] A microscope according to an embodiment of the present invention A photograph of the microbial phase underneath. [Fig. 4] A flow chart of a method for processing a terminal data for wastewater diagnosis according to an embodiment of the present invention; and [Fig. 5] a flow chart of a method for processing a remote data of wastewater diagnosis according to an embodiment of the present invention.

10‧‧‧ Terminal devices

102‧‧‧Image capture unit

104‧‧‧terminal arithmetic unit

12‧‧‧Internet

13‧‧‧ water sample to be tested

M1‧‧‧Microbial phase

14‧‧‧Cloud Data Processing Center

15‧‧‧ slides

D1‧‧‧microscopic image data

D2‧‧‧ Sending information

D3‧‧‧ Biological treatment information

Claims (28)

A wastewater diagnostic system comprising: a terminal device that captures microscopic image data of a microbial phase in a water sample to be tested, and converts the microscopic image data into a transmission information; and a cloud data processing center The transmission information is received, and the micro-phase analysis and comparison operation are performed on the transmission information, and the bioprocessing information corresponding to the result of the analysis and the comparison operation is returned to the terminal device. The wastewater diagnostic system of claim 1, wherein the terminal device comprises: an image capturing unit for extracting microscopic image data of the microbial phase; and a terminal computing unit connected to the An image capturing unit for compressing the microscopic image data into the transmission information. The wastewater diagnostic system of claim 2, wherein the image capturing unit comprises: a microscope capable of amplifying the microbial phase in the water sample to be tested at a predetermined observation magnification; and a camera, Connected to the microscope and used to capture an enlarged image of the microbial phase. The wastewater diagnostic system of claim 3, wherein the camera is a CCD (Charge-coupled Device; CCD) or a CMOS (Complementary Metal-Oxide-Semiconductor; CMOS). The wastewater diagnostic system of claim 3, wherein the image capturing unit further comprises an analog digital converter that converts the analog image of the microorganism phase into a digital image. The wastewater diagnostic system of claim 2, wherein the terminal computing unit comprises: a processing module coupled to the image capturing unit and configured to compress the microscopic image data into the transmitting information; A communication module is connected to the processing module and configured to transmit the transmission information to the cloud data processing center. The wastewater diagnostic system of claim 6, wherein the terminal computing unit further comprises: a memory module coupled to the processing module and configured to provide data storage. The wastewater diagnostic system of claim 6, wherein the terminal computing unit further comprises: a display module coupled to the processing module and configured to provide the microscopic image and/or the biological processing information display. The wastewater diagnostic system of claim 6, wherein the terminal computing unit further comprises: an input module coupled to the processing module and configured to provide a condition setting value to the processing module. The wastewater diagnostic system according to claim 9, wherein the condition setting value comprises: a sedimentation index (SV30) of 30 minutes from sludge, a dissolved oxygen index (DO), an acid-base index (PH), and electrical conductivity ( EC), total dissolved solids (TDS), salinity (Salt), redox store (ORP), water color, acidity, alkalinity, hardness, turbidity, metal ion concentration, phosphorus content, nitrogen content, At least one selected from the group consisting of sulfur content, chlorine content, sludge color, sludge reflux ratio (sludge amount/waste water amount), and combinations thereof. The wastewater diagnostic system of claim 9, wherein the processing module integrates the condition set value and the microscopic image data and compresses the transmitted information. The wastewater diagnostic system of claim 2, wherein the cloud data processing center is connected to the terminal computing unit via the internet. The wastewater diagnostic system of claim 2, wherein the cloud data processing center comprises: a database; and a server host connected to the database, and searching for the database according to the sending information. The pre-stored microbial phase data and the bioprocessing information corresponding to the transmitted information are found from the database based on the results of the comparison search. The wastewater diagnostic system according to claim 13, wherein the database comprises a biological treatment information table of a microbial phase data table pre-existing with various microbial phase data and a biological treatment countermeasure data corresponding to pre-existing various dominant microorganisms. . A terminal data processing method for wastewater diagnosis, which comprises the steps of: taking a microbial image data acquisition step of microscopic image data of a microbial phase in a water sample to be tested; converting the microscopic image by using a terminal device; And transmitting the information to a cloud data processing center; and receiving the biological processing information corresponding to the transmission information generated by the cloud data processing center. The terminal data processing method for wastewater diagnosis according to claim 15 further includes the step of compressing the microscopic image data into the transmission information by the terminal device. The terminal data processing method for wastewater diagnosis according to claim 15 further comprises the step of converting the analog image of the microorganism phase into a digital image by the terminal device. The terminal data processing method for wastewater diagnosis according to claim 15 further includes the step of integrating a condition setting value and the microscopic image data into the transmission information by the terminal device. The terminal data processing method for wastewater diagnosis according to claim 15 further includes the step of displaying the corresponding biological processing information by the terminal device. A remote data processing method for wastewater diagnosis, which is performed by a cloud data processing center: receiving one of receiving information from a terminal device; performing microbial phase analysis and comparison operation on the transmitted information; And transmitting, according to the result of the analysis and the comparison operation, a biological processing information corresponding to the transmission information to the terminal device. The remote data processing method for wastewater diagnosis according to claim 20, further comprising the step of analyzing, by the cloud data processing center, the type and quantity of the microbial phase represented by the transmitted information. The remote data processing method for wastewater diagnosis according to claim 21, further comprising: using the cloud data processing center, the type of the microbial phase represented by the sending information and the pre-existing microbial phase data. Compare the steps of the search. The remote data processing method for wastewater diagnosis according to claim 22, further comprising the cloud data processing center, and finding the biological processing information corresponding to the sending information according to the result obtained by the comparison searching step. step. A wastewater diagnostic device includes: an image capturing unit that captures microscopic image data of a microorganism phase in a water sample to be tested; a memory module that stores microbial phase data and biological processing information; and a processing module Connected to the image capturing unit and the memory module, and used to compress the microscopic image data into a transmission information, and search for the microbial phase data in the memory module according to the transmission information comparison, and according to the comparison Searching for results from the memory module to find biological processing information corresponding to the transmitted information; and a display module coupled to the processing module for providing the microscopic image and/or the biological processing information Display. The waste water diagnostic apparatus according to claim 24, wherein the image capturing unit comprises: a microscope capable of amplifying the microorganism phase in the water sample to be tested at a predetermined observation magnification; and a camera, Connected to the microscope and used to capture an enlarged image of the microbial phase. The wastewater diagnostic apparatus of claim 25, wherein the image capturing unit further comprises an analog digital converter that converts the analog image of the microorganism phase into a digital image. The waste water diagnostic device of claim 24, further comprising: an input module coupled to the processing module and configured to provide a condition setting value to the processing module. The wastewater diagnostic apparatus of claim 27, wherein the processing module integrates the condition setting value and the microscopic image data and compresses the transmission information.