Synchronous motor drive assembly excitation signal fault detection and processing system and method

Abstract

The present invention provides a detection and processing system and method for excitation signal faults of a synchronous motor transmission assembly, which relates to the technical field of steel production, and includes a power stator detection and conversion system, an air-water and DC component system, a main power AC / DC system, a communication integrated coding system, and a transmission and visualization processing system. The power stator detection and conversion system is used to detect the working status of the power cabinet cooling component power supply system and the working status of the motor system stator and stator winding insulation heating treatment power supply system. The present invention comprehensively monitors and collects signals from various subsystems of the excitation signal of the entire large-scale synchronous motor transmission assembly, collects and transmits identifiable and quantitative signals of all key signals, and quickly identifies and locates related faults of the excitation system of the large-scale synchronous motor transmission assembly through visualized fault signal processing and visualized fault signal identification and quantification, thereby achieving rapid processing and saving fault search time in the production process.

Description

Technical Field

[0001] The present invention relates to the technical field of steel production, and in particular to a system and method for detecting and processing excitation signal faults of a synchronous motor transmission assembly. Background Art

[0002] There are many types of excitation signal faults in large synchronous motor drive components, and they cover a wide range of technical aspects. When a fault occurs during normal production, it takes a very long time to find the fault, and most of the time the exact fault cannot be found, which poses a great threat to the continuity and stability of production.

[0003] The various sub-control systems in the prior art do not identify, collect, and convert key signals. In this way, when a general signal fault is reported, there is no directional direction and it can only be searched blindly. Targeted and rapid processing cannot be achieved. In the process of searching, there may even be problems such as damage to the circuit and related components. Furthermore, directional errors may lead to misjudgment of related causes and further delay processing, ultimately resulting in extended fault processing time and reduced production operation rate. Therefore, the present invention proposes a detection and processing system and method for excitation signal faults of synchronous motor transmission components to solve the problems existing in the prior art. Summary of the Invention

[0004] In response to the above problems, the present invention proposes a system and method for detecting and processing excitation signal faults of a synchronous motor transmission assembly. The system and method for detecting and processing excitation signal faults of a synchronous motor transmission assembly achieve rapid processing and save fault finding time in the production process.

[0005] To achieve the purpose of the present invention, the present invention is implemented through the following technical solutions: a detection and processing system for the excitation signal failure of the synchronous motor transmission component, including a power stator detection and conversion system, an air-water and DC component system, a main power AC / DC system, a communication integrated coding system, and a transmission and visualization processing system. The power stator detection and conversion system is used to detect the working state of the power cabinet cooling component power supply system and the working state of the motor system stator and second stator winding insulation heating treatment power supply system; the air-water and DC component system is used to detect the working state of the motor power supply system of the synchronous motor supporting air-water cooler in the direction of the heating furnace and the direction of the No. 1 water tank, and detect the working state of the power supply system of the cooling component, drive and conversion component of the DC speed regulation device body; the main power AC / DC system is used to detect the working state of the main power cabinet input component power supply system and detect the overvoltage and overcurrent detection system action signals of the DC link and AC link;

[0006] The communication integrated coding system is used to diagnose the communication components and convert the abnormal signals into visual signal output after quantitative identification, and integrate the abnormal signals and group them in the central integrated control processing center; the transmission and visual processing system transmits signals between the excitation component end and the central control end through bilateral communication and symmetrical communication, and performs fault query and visual processing through the visual fault display of the central control end.

[0007] A further improvement is that the power stator detection and conversion system, the air-water and DC component system, and the main power AC and DC system all convert the detected data into digital switch signals.

[0008] Further improvements are as follows: in the power stator detection and conversion system, the power cabinet cooling component is composed of the upward exhaust fan and power supply control system of the system 1 rectifier cabinet, the upward exhaust fan and power supply control system of the system 1 inverter cabinet, the upward exhaust fan and power supply control system of the DC reactor link cabinet, the upward exhaust fan and power supply control system of the system 2 rectifier cabinet, and the upward exhaust fan and power supply control system of the system 2 rectifier cabinet, and the upward exhaust fan and power supply control system of the system 2 rectifier cabinet, and the heat is dissipated by the power cabinet cooling component; the stator winding and the second stator winding of the machine system together constitute the stator winding of the synchronous motor, and the two windings correspond to two transmission control systems and two power supply systems; the insulation heating treatment power supply system refers to the heating component embedded in the motor winding and the matching power supply system, which are used to maintain normal insulation of the motor winding.

[0009] Further improvements are as follows: in the air-water and DC component system, the air-water cooler for the synchronous motor refers to an integrated heat dissipation system of air cooling and water cooling, which is installed directly below the synchronous motor to cool the motor windings; the motors facing the heating furnace and the No. 1 water tank are both equipped with wind wheels for cooling with water cooling; the DC speed regulation device is used to adjust and control the voltage of the excitation system, and consists of a dry-type transformer system, a low-voltage room power supply component, a knife switch control system, a large contactor control component, an auxiliary signal acquisition and transmission system, a voltage regulation key system, and a voltage output and detection system.

[0010] Further improvements are as follows: in the main power AC / DC system, the main power cabinet input component power supply system is a power supply system located in the low-voltage room, which is composed of a voltage conversion and filtering system, a safety monitoring and interlocking protection system, a cross-floor power cable transmission system, a power cable support and placement bridge system, a small busbar centralized power supply system, and a switch component power distribution system; the overvoltage and overcurrent detection system of the DC link and AC link is used to check, identify and emergency absorb the overvoltage and overcurrent of the DC link and AC link of the entire excitation system.

[0011] Further improvements are as follows: in the communication integrated coding system, the communication components are composed of a communication transmission system, a communication diagnosis system, a communication identification system, a communication quantization grouping and compilation system; the central integrated control processing center is the control center of the entire transmission system, which is used to control various signals and instructions, integrate and encode abnormal signals and group signals, and identify and locate fault locations and faulty components.

[0012] Further improvements are as follows: in the transmission and visualization processing system, bilateral communication and symmetrical communication refer to the output communication and input communication between the entire excitation control system and the central integrated control processing center, which are used for the transmission of fault information and abnormal information; visual fault display refers to the visual display and visual positioning of abnormal signals and abnormal information of the excitation system.

[0013] Further improvements are: the power stator detection and conversion system consists of a power actual value detection component, a power unit input and output component, a stator winding temperature measurement system, a stator winding air-cooled hot air detection system, a stator winding air-cooled cold air detection system, a voltage quantization detection system, and a current quantization detection system; the air-water and DC component system consists of an air-water cooler system, a clean circulating water inlet system, a clean circulating water outlet system, a cooler box leakage detection system, an air duct temperature acquisition, detection and transmission system, an excitation DC speed regulation component system, and a voltage output and detection closed-loop system; the main power AC / DC system consists of a main power output control system, a main power signal feedback control system, a main power action state closed-loop acquisition system, a main power knife switch isolation control system, a DC link overvoltage and overcurrent surge absorption system, and an AC link overvoltage and overcurrent surge absorption system.

[0014] Further improvements are: the communication integrated coding system is composed of a communication transmission and feedback system, a communication diagnosis and recording system, a communication abnormality visualization display system, a communication signal and status integration system, and a communication signal and status compilation system; the transmission and visualization processing system is composed of an excitation control end signal output system, an excitation control end state closed-loop feedback system, an excitation control end key state monitoring system, an excitation control end dynamic variable acquisition and transmission system, a central control end signal output system, a central control end state closed-loop feedback system, a central control end key state monitoring system, and a central control end dynamic variable acquisition and transmission system.

[0015] A method for detecting and processing an excitation signal fault of a synchronous motor transmission assembly comprises the following steps:

[0016] S1: Detects the working status of the power cabinet cooling component power system and converts it into a digital switch signal;

[0017] S2: Detect the working status of the power supply system for the insulation heating treatment of the stator winding of the motor system, detect the working status of the power supply system for the insulation heating treatment of the stator winding of the motor system, and convert them into digital switch signals;

[0018] S3: Detect the working status of the synchronous motor supporting air-water cooler near the heating furnace direction motor power supply system, detect the working status of the synchronous motor supporting air-water cooler near the No. 1 water tank direction motor power supply system, and convert them into digital switch signals;

[0019] S4: Detecting the working status of the power supply system of the cooling component of the DC speed regulating device body, detecting the working status of the power supply system of the driving and conversion components of the DC speed regulating device body, and converting them into digital switch signals;

[0020] S5: Detect the working status of the power system of the main power cabinet input component and convert it into a digital switch signal;

[0021] S6: Detect the action signals of the DC link overvoltage and overcurrent detection system, detect the action signals of the AC link overvoltage and overcurrent detection system, and convert them into digital switch signals;

[0022] S7: diagnose the communication components and convert the abnormal signals into visual signal output after quantitative identification, and integrate and encode the above signals into signal groups in the central integrated control and processing center;

[0023] S8: Signals are transmitted between the excitation component end and the central control end through bilateral and symmetrical communication, and fault query and visualization processing are performed through the visual fault display of the central control end.

[0024] The beneficial effects of the present invention are:

[0025] 1. The present invention comprehensively monitors and collects signals from various subsystems of the excitation signal of the entire large-scale synchronous motor transmission assembly, realizing the identifiable quantitative collection and transmission of all key signals. Through visual fault signal processing and visual fault signal identification and quantification, it can quickly identify and locate related faults in the excitation system of the large-scale synchronous motor transmission assembly, thereby achieving rapid processing and saving fault finding time in the production process.

[0026] 2. The present invention reduces a large amount of accident time, provides a solid foundation for high-yield and stable production, and avoids circuit damage and component damage caused by fault finding, repeated disassembly and component replacement. BRIEF DESCRIPTION OF THE DRAWINGS

[0027] Figure 1 A schematic diagram of the system of the present invention;

[0028] Figure 2Flow chart of the method of the present invention. DETAILED DESCRIPTION

[0029] In order to deepen the understanding of the present invention, the present invention will be further described in detail below with reference to the examples. The examples are only used to explain the present invention and do not constitute a limitation on the scope of protection of the present invention.

[0030] Example 1

[0031] according to Figure 1 As shown, this embodiment proposes a detection and processing system for synchronous motor transmission component excitation signal faults, including a power stator detection and conversion system, an air-water and DC component system, a main power AC / DC system, a communication integrated coding system, and a transmission and visualization processing system:

[0032] The power stator detection and conversion system is used to detect the operating status of the power cabinet cooling component power supply system and convert it into a digital switch signal. It then detects the operating status of the motor system stator winding insulation heating power supply system and the motor system stator winding insulation heating power supply system and converts it into a digital switch signal.

[0033] The power cabinet cooling assembly consists of the upward exhaust fan and power supply control system of the rectifier cabinet of system one, the upward exhaust fan and power supply control system of the inverter cabinet of system one, the upward exhaust fan and power supply control system of the DC reactor link cabinet, the upward exhaust fan and power supply control system of the rectifier cabinet of system two, and the upward exhaust fan and power supply control system of the rectifier cabinet of system two. The power cabinet cooling assembly can quickly dissipate heat of the power unit and thus ensure the safe and stable operation of the entire transmission system; the stator winding of the motor system one and the stator winding of the motor system two together constitute the stator winding of the synchronous motor, and the two windings correspond to two transmission control systems and two power supply systems. The insulation heating treatment system refers to the heating assembly embedded in the motor winding and the supporting power supply system. The insulation heating treatment system can ensure the insulation of the motor whether it is during the steel rolling process or during maintenance, whether it is dry weather or humid environment, the insulation of the motor winding can be ensured to be normal;

[0034] The air-water and DC component system is used to detect the operating status of the synchronous motor's air-water cooler power supply system near the heating furnace and the synchronous motor's air-water cooler power supply system near the No. 1 water tank, and convert them into digital switch signals. It then detects the operating status of the DC speed regulator's cooling component power supply system and the DC speed regulator's drive and conversion component power supply system, and converts them into digital switch signals.

[0035] The air-water cooler for synchronous motors is an integrated cooling system combining air and water cooling. Installed directly below the synchronous motor, it is supported and secured by an intermediate transition plate and intermediate support columns. Through closed air circulation and water cooling, the motor windings can be efficiently cooled, thereby increasing their service life and reliability. The motors in both directions have built-in fans. When powered, the motors generate a large air circulation heat exchange cycle, which is then cooled by water. The DC speed control device, used to regulate and control the voltage of the excitation system, consists of a dry-type transformer system, a low-voltage power supply component, a knife switch control system, a large contactor control component, an auxiliary signal acquisition and transmission system, a key voltage regulation system, and a voltage output and detection system. Both the DC speed control device and its cooling system require electrical power.

[0036] The main power AC / DC system is used to detect the operating status of the main power cabinet input component power system and convert it into a digital switch signal. It then detects the action signal of the DC link overvoltage and overcurrent detection system and the AC link overvoltage and overcurrent detection system and converts them into digital switch signals.

[0037] The main power cabinet input component power supply system is located in the low-voltage room and consists of a voltage conversion and filtering system, a safety monitoring and interlocking protection system, a cross-floor power cable transmission system, a power cable support and placement bridge system, a small busbar centralized power supply system, and a switch assembly power distribution system. The main power cabinet input component power supply system can provide power for the entire excitation system. The DC link overvoltage and overcurrent detection system can detect, identify, and absorb overvoltage and overcurrent in the DC link of the entire excitation system, thereby preventing DC link overloads on the entire system's components. The AC link overvoltage and overcurrent detection system can detect, identify, and absorb overvoltage and overcurrent in the AC link of the entire excitation system, thereby preventing AC link overloads on the entire system's components.

[0038] The communication integrated coding system is used to diagnose communication components and quantify and identify abnormal signals before converting them into visual signal outputs. The abnormal signals are then integrated and coded and grouped in the central integrated control and processing center.

[0039] The communication component consists of a communication transmission system, a communication diagnosis system, a communication identification system, a communication quantization grouping and a compilation system. By diagnosing and identifying abnormal signals, and transmitting and judging them in a timely manner, it is possible to quickly diagnose and process abnormal communications. The central integrated control and processing center is the control center of the entire transmission system, and can quickly and efficiently control various signals and instructions. Integrating the coding and signal grouping of abnormal signals can achieve rapid identification of abnormal signals in the event of an abnormal fault, as well as accurate positioning of the fault location and faulty components.

[0040] The transmission and visual processing system achieves signal transmission between the excitation component end and the central control end through bilateral and symmetrical communication. Then, the central control end can quickly query and visually process faults through visual fault display.

[0041] Bilateral communication and symmetrical communication refer to the output communication and input communication between the entire excitation control system and the central integrated control and processing center. Through such communication transmission, fault information and abnormal information can be quickly transmitted; visual fault display can visualize and locate abnormal signals and abnormal information of the excitation system, thereby enabling fast and accurate processing. Such innovative design and innovative application can realize visual and rapid processing of abnormal excitation signals and excitation faults.

[0042] Example 2

[0043] according to Figure 1 As shown, this embodiment proposes a detection and processing system for synchronous motor transmission component excitation signal faults, including a power stator detection and conversion system, an air-water and DC component system, a main power AC / DC system, a communication integrated coding system, and a transmission and visualization processing system;

[0044] The power stator detection and conversion system is used to detect the operating status of the power cabinet cooling component power supply system and the operating status of the stator and stator winding insulation heating treatment power supply system of the motor system. The power stator detection and conversion system consists of a power actual value detection component, a power unit input and output component, a stator winding temperature measurement system, a stator winding hot air detection system, a stator winding cold air detection system, a voltage quantization detection system, and a current quantization detection system. Converting the power system operating status into a digital switch signal enables convenient transmission and visualization of key status signals.

[0045] The air-water and DC component system is used to detect the operating status of the synchronous motor's supporting air-water cooler's motor power supply system, located near the heating furnace and the No. 1 water tank, and to detect the operating status of the DC speed control device's cooling components, drive, and conversion components. The air-water and DC component system consists of an air-water cooler system, a clean circulating water inlet system, a clean circulating water outlet system, a cooler housing leak detection system, an air duct temperature acquisition, detection, and transmission system, an excitation DC speed control component system, and a voltage output and detection closed-loop system. The symmetrical wind turbine motor design of the air-water cooling system maximizes air volume and cooling efficiency.

[0046] The main power AC / DC system is used to detect the operating status of the main power cabinet input component power system, and detect overvoltage and overcurrent detection system action signals in the DC and AC links. The main power AC / DC system consists of a main power output control system, a main power signal feedback control system, a main power action status closed-loop acquisition system, a main power knife switch isolation control system, a DC link overvoltage and overcurrent surge absorption system, and an AC link overvoltage and overcurrent surge absorption system. By controlling the key links of the main power AC / DC system and dynamically handling abnormal situations, the anti-interference performance of the excitation system can be improved.

[0047] The communication integrated coding system is used to diagnose communication components, quantify and identify abnormal signals, and convert them into visual signal outputs. It also integrates and encodes abnormal signals and groups them in a central integrated control and processing center. The communication integrated coding system consists of a communication transmission and feedback system, a communication diagnosis and recording system, a communication abnormality visual display system, a communication signal and status integration system, and a communication signal and status compilation system. By controlling and optimizing the communication integrated coding system in real time, the entire excitation control system can be quantified and optimized in real time.

[0048] The transmission and visualization processing system transmits signals between the excitation component and the central control terminal through bilateral and symmetrical communication, and performs fault query and visualization processing through visual fault display on the central control terminal. The transmission and visualization processing system consists of an excitation control terminal signal output system, an excitation control terminal state closed-loop feedback system, an excitation control terminal key state monitoring system, an excitation control terminal dynamic variable acquisition and transmission system, a central control terminal signal output system, a central control terminal state closed-loop feedback system, a central control terminal key state monitoring system, and a central control terminal dynamic variable acquisition and transmission system. The innovative design of the transmission and visualization processing system enables efficient diagnosis and processing of abnormal conditions in the excitation control system.

[0049] Example 3

[0050] according to Figure 2As shown, this embodiment proposes a method for detecting and processing an excitation signal fault of a synchronous motor transmission assembly, comprising the following steps:

[0051] S1: Detects the working status of the power cabinet cooling component power system and converts it into a digital switch signal;

[0052] S2: Detect the working status of the power supply system for the insulation heating treatment of the stator winding of the motor system, detect the working status of the power supply system for the insulation heating treatment of the stator winding of the motor system, and convert them into digital switch signals;

[0053] S3: Detect the working status of the synchronous motor supporting air-water cooler near the heating furnace direction motor power supply system, detect the working status of the synchronous motor supporting air-water cooler near the No. 1 water tank direction motor power supply system, and convert them into digital switch signals;

[0054] S4: Detecting the working status of the power supply system of the cooling component of the DC speed regulating device body, detecting the working status of the power supply system of the driving and conversion components of the DC speed regulating device body, and converting them into digital switch signals;

[0055] S5: Detect the working status of the power system of the main power cabinet input component and convert it into a digital switch signal;

[0056] S6: Detect the action signals of the DC link overvoltage and overcurrent detection system, detect the action signals of the AC link overvoltage and overcurrent detection system, and convert them into digital switch signals;

[0057] S7: diagnose the communication components and convert the abnormal signals into visual signal output after quantitative identification, and integrate and encode the above signals and group them in the central integrated control and processing center;

[0058] S8: Signals are transmitted between the excitation component end and the central control end through bilateral and symmetrical communication, and fault query and visualization processing are performed through the visual fault display of the central control end.

[0059] The present invention comprehensively monitors and collects signals from each subsystem of the excitation signal of the entire large-scale synchronous motor transmission assembly, realizes the identifiable quantitative collection and transmission of all key signals, and then performs visual fault signal processing and visual fault signal identification and quantification, quickly identifying and locating related faults in the excitation system of the large-scale synchronous motor transmission assembly, thereby realizing rapid processing, saving fault finding time in the production process, reducing a large amount of accident time, providing a solid foundation for high-yield and stable production, and avoiding line damage and component damage caused by fault finding, repeated disassembly and component replacement. In summary, the present invention converts the working state of the power system into a digital switch signal, which can realize the convenient transmission and visualization of key state signals, utilizes the symmetrical wind turbine motor design of the air-water cooling system to maximize the air volume and cooling effect, improves the anti-interference ability of the excitation system by controlling the key links of the main power AC and DC system and dynamically processing abnormal conditions, realizes quantification and real-time optimization of the control of the entire excitation control system by controlling and optimizing the communication integrated coding system, and realizes efficient diagnosis and efficient processing of abnormal conditions of the excitation control system through the innovative design of the transmission and visualization processing system.

[0060] The basic principles, main features, and advantages of the present invention are shown and described above. Those skilled in the art should understand that the present invention is not limited to the foregoing embodiments. The foregoing embodiments and descriptions are merely illustrative of the principles of the present invention. Various changes and modifications may be made to the present invention without departing from the spirit and scope of the present invention. Such changes and modifications are intended to fall within the scope of the present invention. The scope of protection claimed in the present invention is defined by the appended claims and their equivalents.

Claims

1. A detection and processing system for excitation signal faults in synchronous motor drive components, including a power stator detection and conversion system, an air-water and DC component system, a main power AC / DC system, a communication integrated coding system, and a transmission and visualization processing system. It is characterized by: The power stator detection and conversion system is used to detect the working status of the power cabinet cooling component power supply system and the working status of the stator and second stator winding insulation heating treatment power supply system of the motor system; the air-water and DC component system is used to detect the working status of the motor power supply system of the synchronous motor supporting air-water cooler in the direction of the heating furnace and the No. 1 water tank, and detect the working status of the cooling component, drive and conversion component of the DC speed regulation device body; the main power AC / DC system is used to detect the working status of the main power cabinet input component power supply system, detect the overvoltage and overcurrent detection system action signals of the DC link and AC link; The communication integrated coding system is used to diagnose the communication components and convert the abnormal signals into visual signal output after quantitative identification, and integrate the abnormal signals and group them in the central integrated control processing center; the transmission and visual processing system transmits signals between the excitation component end and the central control end through bilateral communication and symmetrical communication, and performs fault query and visual processing through the visual fault display of the central control end; The power stator detection and conversion system, air-water and DC component system, and main power AC and DC system all convert the detected data into digital switch signals; In the power stator detection and conversion system, the power unit is cooled by the power cabinet cooling component; the stator and the second stator winding of the motor system together constitute the stator winding of the synchronous motor, and the two windings correspond to two transmission control systems and two power supply systems; the insulation heating treatment power supply system refers to the heating component embedded in the motor winding and the supporting power supply system, which is used to maintain the normal insulation of the motor winding; In the air-water and DC component system, the air-water cooler for the synchronous motor refers to an integrated heat dissipation system of air cooling and water cooling, which is installed directly below the synchronous motor to cool the motor windings; the motors facing the heating furnace and the No. 1 water tank are both equipped with wind wheels for cooling with water cooling; the DC speed regulation device is used to adjust and control the voltage of the excitation system, and consists of a dry-type transformer system, a low-voltage room power supply component, a knife switch control system, a large contactor control component, an auxiliary signal acquisition and transmission system, a voltage regulation key system, and a voltage output and detection system.

2. The synchronous motor transmission assembly excitation signal fault detection and processing system according to claim 1, characterized in that: In the power stator detection and conversion system, the power cabinet cooling component is composed of the upward exhaust fan and power supply control system of the rectifier cabinet of system one, the upward exhaust fan and power supply control system of the inverter cabinet of system one, the upward exhaust fan and power supply control system of the DC reactor link cabinet, and the upward exhaust fan and power supply control system of the rectifier cabinet of system two.

3. The synchronous motor transmission assembly excitation signal fault detection and processing system according to claim 2, characterized in that: In the main power AC / DC system, the main power cabinet input component power supply system is a power supply system located in the low-voltage room, which is composed of a voltage conversion and filtering system, a safety monitoring and interlocking protection system, a cross-floor power cable transmission system, a power cable support and placement bridge system, a small busbar centralized power supply system and a switch component power distribution system; the overvoltage and overcurrent detection system of the DC link and AC link is used to check, identify and emergency absorb the overvoltage and overcurrent of the DC link and AC link of the entire excitation system.

4. The synchronous motor transmission assembly excitation signal fault detection and processing system according to claim 3, characterized in that: In the communication integrated coding system, the communication components are composed of a communication transmission system, a communication diagnosis system, a communication identification system, and a communication quantization grouping and compilation system; the central integrated control processing center is the control center of the entire transmission system, which is used to control various signals and instructions, integrate and encode abnormal signals and group signals, and identify and locate fault locations and faulty components.

5. The synchronous motor transmission assembly excitation signal fault detection and processing system according to claim 4, characterized in that: In the transmission and visualization processing system, bilateral communication and symmetrical communication refer to the output communication and input communication between the entire excitation control system and the central integrated control processing center, which are used for the transmission of fault information and abnormal information; visual fault display refers to the visual display and visual positioning of abnormal signals and abnormal information of the excitation system.

6. The synchronous motor transmission assembly excitation signal fault detection and processing system according to claim 1, characterized in that: The power stator detection and conversion system consists of a power actual value detection component, a power unit input and output component, a stator winding temperature measurement system, a stator winding air-cooling hot air detection system, a stator winding air-cooling cold air detection system, a voltage quantization detection system and a current quantization detection system; the air-water and DC component system consists of an air-water cooler system, a clean circulating water inlet system, a clean circulating water outlet system, a cooler box leakage detection system, an air duct temperature acquisition, detection and transmission system, an excitation DC speed regulation component system and a voltage output and detection closed-loop system; the main power AC / DC system consists of a main power output control system, a main power signal feedback control system, a main power action state closed-loop acquisition system, a main power knife switch isolation control system, a DC link overvoltage and overcurrent surge absorption system and an AC link overvoltage and overcurrent surge absorption system.

7. The synchronous motor transmission assembly excitation signal fault detection and processing system according to claim 6, characterized in that: The communication integrated coding system consists of a communication transmission and feedback system, a communication diagnosis and recording system, a communication abnormality visualization display system, a communication signal and status integration system, and a communication signal and status compilation system; the transmission and visualization processing system consists of an excitation control end signal output system, an excitation control end state closed-loop feedback system, an excitation control end key state monitoring system, an excitation control end dynamic variable acquisition and transmission system, a central control end signal output system, a central control end state closed-loop feedback system, a central control end key state monitoring system, and a central control end dynamic variable acquisition and transmission system.

8. A method for detecting and processing excitation signal failure of a synchronous motor transmission assembly, characterized in that: The method is performed using the detection and processing system for the excitation signal failure of the synchronous motor transmission assembly according to any one of claims 1 to 7, comprising the following steps: S1: Detects the working status of the power cabinet cooling component power system and converts it into a digital switch signal; S2: Detect the working status of the power supply system for the insulation heating treatment of the stator winding of the motor system, detect the working status of the power supply system for the insulation heating treatment of the stator winding of the motor system, and convert them into digital switch signals; S3: Detect the working status of the synchronous motor supporting air-water cooler near the heating furnace direction motor power supply system, detect the working status of the synchronous motor supporting air-water cooler near the No. 1 water tank direction motor power supply system, and convert them into digital switch signals; S4: Detecting the working status of the power supply system of the cooling component of the DC speed regulating device body, detecting the working status of the power supply system of the driving and conversion components of the DC speed regulating device body, and converting them into digital switch signals; S5: Detect the working status of the power system of the main power cabinet input component and convert it into a digital switch signal; S6: Detect the action signals of the DC link overvoltage and overcurrent detection system, detect the action signals of the AC link overvoltage and overcurrent detection system, and convert them into digital switch signals; S7: diagnose the communication components and convert the abnormal signals into visual signal output after quantitative identification, and integrate and encode the above signals into signal groups in the central integrated control and processing center; S8: Signals are transmitted between the excitation component end and the central control end through bilateral and symmetrical communication, and fault query and visualization processing are performed through the visual fault display of the central control end.

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