Detection equipment, detection method, detection device, storage medium and electronic equipment

Abstract

The invention relates to the technical field of chemistry, and provides detection equipment, a detection method, a detection device, a storage medium and electronic equipment.The detection equipment is used for detecting an electrolytic tank and comprises a laser transmitter, the laser transmitter is arranged opposite to the electrolytic tank, the laser transmitter can emit laser to the electrolytic tank, the laser irradiates gas in the electrolytic tank, and the laser irradiates the gas in the electrolytic tank; the laser generates Raman scattering; the Raman collector is arranged opposite to the electrolytic tank, and the Raman collector can collect a first parameter of the laser after Raman scattering; the Raman receiver is connected with the Raman collector and is used for acquiring a first spectrogram according to the first parameter; and the analyzer is connected with the Raman receiver and is used for determining the structural stability of the electrolytic tank according to the first spectrogram.

Description

Technical Field

[0001] The present invention relates to the field of chemical technology, and in particular, to a detection device, a detection method, a detection apparatus, a storage medium, and an electronic device. Background Art

[0002] In the related art, to ensure the normal operation of an electrolytic cell, it is necessary to detect the stability of the electrolytic cell. Currently, the devices and methods for detecting the stability of an electrolytic cell need to penetrate into the interior of the electrolytic cell during detection, so the detection will interfere with the normal operation of the electrolytic cell. Summary of the Invention

[0003] In view of this, a first aspect of the present invention provides a detection device.

[0004] A second aspect of the present invention provides a detection method.

[0005] A third aspect of the present invention provides a detection apparatus.

[0006] A fourth aspect of the present invention provides a storage medium.

[0007] A fifth aspect of the present invention provides an electronic device.

[0008] Specifically, the present invention is implemented through the following technical solutions:

[0009] According to the first aspect of the present invention, a detection device is provided. The detection device is used to detect an electrolytic cell. The detection device includes: a laser emitter, which is disposed opposite to the electrolytic cell. The laser emitter can emit laser towards the electrolytic cell, and the laser irradiates the gas inside the electrolytic cell to generate Raman scattering; a Raman collector, which is disposed opposite to the electrolytic cell. The Raman collector can collect the first parameter of the laser after Raman scattering; a Raman receiver, which is connected to the Raman collector and is used to obtain a first spectrogram according to the first parameter; and an analyzer, which is connected to the Raman receiver and is used to determine the structural stability of the electrolytic cell according to the first spectrogram.

[0010] The detection device proposed by the present invention is used to detect an electrolytic cell. Specifically, an electrolytic cell is a device that converts electrical energy into chemical energy. The electrolytic cell causes oxidation-reduction reactions at the cathode and anode connections by passing an electric current through an electrolyte solution or molten electrolyte.

[0011] The detection device proposed by the present invention is specifically used to detect the stability of an electrolytic cell. The stability of the electrolytic cell is an important performance index of the electrolytic cell.

[0012] The detection device includes a laser emitter, a Raman collector, a Raman receiver, and an analyzer.

[0013] The laser emitter is disposed opposite to the electrolytic cell. Specifically, the part of the laser emitter that emits laser light corresponds to the surface of the electrolytic cell. The laser emitter can emit laser light towards the electrolytic cell, and the laser light irradiates the gas inside the electrolytic cell, generating Raman scattering.

[0014] Specifically, when the laser light irradiates the gas inside the electrolytic cell, the laser light irradiates the gas molecules, providing sufficient energy for the gas molecules to transition from the ground state to the excited state. When the gas molecules absorb the laser energy and transition to the excited state, the gas molecules vibrate. During the vibration of the gas molecules, the polarity of the gas molecules changes, resulting in a change in the frequency of the scattered light of the laser, and Raman scattering of the laser occurs.

[0015] The Raman collector is disposed opposite to the electrolytic cell. Specifically, the Raman collector is disposed opposite to the surface of the electrolytic cell. The Raman collector is not inserted into the interior of the electrolytic cell. The Raman collector can collect the first parameter of the laser light after Raman scattering.

[0016] The Raman receiver is connected to the Raman collector. After the Raman collector collects the first parameter of the laser light after Raman scattering, the Raman collector communicates with the Raman receiver. The Raman collector sends the first parameter to the Raman receiver, and the Raman receiver receives this first parameter and processes the first parameter, thereby obtaining the first spectrogram according to the first parameter.

[0017] The analyzer is connected to the Raman receiver. After the Raman receiver obtains the first spectrogram, the Raman receiver communicates with the analyzer. The Raman receiver sends the first spectrogram to the analyzer. After the analyzer obtains the first spectrogram, based on the first spectrogram, the structural stability of the electrolytic cell can be determined.

[0018] In the present invention, the structural stability of the electrolytic cell is detected based on the first spectrogram. The first spectrogram is specifically a Raman spectrum, and Raman spectroscopy is a non-invasive, highly sensitive, and highly selective spectroscopic technique. In the present invention, it is not necessary to insert the Raman collector into the electrolytic cell, which will not interfere with the normal operation of the electrolytic cell, and can accurately evaluate the structural stability of the electrolytic cell, improving the safety and reliability of the electrolytic cell.

[0019] In some technical solutions, optionally, the Raman collector is one of a Raman probe or an optical adapter.

[0020] In some technical solutions, optionally, the electrolytic cell includes an anode region, a cathode region, and an electrolyte region. The Raman collector is a Raman probe, and the Raman probe includes: a first probe, connected to the Raman receiver, and the first probe is disposed opposite to the anode region of the electrolytic cell; a second probe, connected to the Raman receiver, and the second probe is disposed opposite to the cathode region of the electrolytic cell; a third probe, connected to the Raman receiver, and the third probe is disposed opposite to the electrolyte region of the electrolytic cell.

[0021] In some technical solutions, optionally, the first probe includes: a detection part disposed on one side of the anode region of the electrolyte; and a first transmission part respectively connected to the detection part and the Raman receiver.

[0022] In some technical solutions, optionally, the number of the first probes is multiple, and there is a gap between two adjacent first probes among the multiple first probes.

[0023] In some technical solutions, optionally, the number of the second probes is multiple, and the multiple second probes are arranged at intervals along the length direction of the cathode region of the electrolytic cell.

[0024] In some technical solutions, optionally, the number of the third probes is multiple, and the multiple third probes are arranged at intervals along the width direction of the electrolyte region of the electrolytic cell.

[0025] In some technical solutions, optionally, the laser emitter includes: a first laser source oppositely arranged with respect to the anode region of the electrolytic cell, and the first laser source is capable of emitting laser light to the anode region; a second laser source oppositely arranged with respect to the cathode region of the electrolytic cell, and the second laser source is capable of emitting laser light to the cathode region; and a third laser source oppositely arranged with respect to the electrolyte region of the electrolytic cell, and the third laser source is capable of emitting laser light to the electrolyte region.

[0026] In some technical solutions, optionally, the Raman receiver includes: a first receiver respectively connected to the first probe and the analyzer; a second receiver respectively connected to the second probe and the analyzer; and a third receiver respectively connected to the third probe and the analyzer.

[0027] In some technical solutions, optionally, the first receiver includes: a second transmission part connected to the first probe for receiving a first parameter of the laser collected by the first probe; a spectral processor connected to the second transmission part for obtaining a first spectrogram according to the first parameter; and a third transmission part respectively connected to the spectral processor and the analyzer for sending the first spectrogram to the analyzer.

[0028] In some technical solutions, optionally, the detection device further includes: a first data line, one end of the first data line is connected to the Raman collector, and the other end of the first data line is connected to the Raman receiver.

[0029] In some technical solutions, optionally, the detection device further includes: a second data line, one end of the second data line is connected to the Raman receiver, and the other end of the second data line is connected to the analyzer.

[0030] According to a second aspect of the present invention, a detection method is provided. The detection method is used to detect an electrolytic cell by means of a detection device. The detection device includes a laser emitter. The detection method includes: controlling the laser emitter to emit laser light towards the electrolytic cell, the laser light irradiating the gas inside the electrolytic cell, and the laser light generating Raman scattering; obtaining a first parameter of the first laser light after Raman scattering; obtaining a first spectrogram according to the first parameter; and determining the structural stability of the electrolytic cell according to the first spectrogram.

[0031] The detection method proposed in the second aspect of the present invention is used to detect an electrolytic cell by means of a detection device, specifically to detect the structural stability of the electrolytic cell.

[0032] The detection device includes a laser emitter, and the laser emitter can generate and emit laser light. Specifically, the detection device is the detection device proposed in the first aspect of the present invention.

[0033] The detection method includes first controlling the laser emitter to emit laser light towards the electrolytic cell. The laser light irradiates the gas inside the electrolytic cell, and the laser light generates Raman scattering. Collect the first parameter of the laser light after Raman scattering, and then process the first parameter to obtain a first spectrogram according to the first parameter. After obtaining the first spectrogram, based on the first spectrogram, the structural stability of the electrolytic cell can be determined.

[0034] The detection method proposed by the present invention detects the structural stability of the electrolytic cell based on the first spectrogram. The first spectrogram is specifically a Raman spectrum, and the Raman spectrum is a non-invasive, highly sensitive and highly selective spectroscopic technique. The present invention does not need to insert the detection probe into the electrolytic cell, will not interfere with the normal operation of the electrolytic cell, and can accurately evaluate the structural stability of the electrolytic cell. By detecting the Raman spectrum and responding in a timely manner to changes in the material structure, the safety and reliability of the electrolytic cell can be improved.

[0035] In some technical solutions, optionally, obtaining a first spectrogram according to the first parameter includes: comparing the first parameter with a spectral comparison table; and determining the first spectrogram based on the comparison result between the first parameter and the spectral comparison table.

[0036] In some technical solutions, optionally, determining the structural stability of the electrolytic cell according to the first spectrogram includes: obtaining the position of the absorption peak, the light intensity value and the change value of the light wave frequency in the first spectrogram; and determining the structural stability of the electrolytic cell according to the position of the absorption peak, the light intensity value and the change value of the light wave frequency.

[0037] According to the third aspect of the present invention, the present invention provides a detection device for detecting an electrolytic cell through a detection device. The detection device includes a laser emitter. The detection device includes: a first processing module for controlling the laser emitter to emit laser light towards the electrolytic cell, the laser light irradiating the gas in the electrolytic cell and generating Raman scattering; a second processing module for obtaining a first parameter of the laser light after Raman scattering; a third processing module for obtaining a first spectrogram according to the first parameter; and a fourth processing module for determining the structural stability of the electrolytic cell according to the first spectrogram.

[0038] For the detection device proposed in the third aspect of the present invention, the detection device includes a first processing module, a second processing module, a third processing module, and a fourth processing module. The first processing module is used to control the laser emitter to emit laser light towards the electrolytic cell, the laser light irradiating the gas in the electrolytic cell and generating Raman scattering.

[0039] The second processing module is used to obtain a first parameter of the laser light after Raman scattering, and the third processing module is used to obtain a first spectrogram according to the first parameter. The fourth processing module is used to determine the structural stability of the electrolytic cell according to the first spectrogram.

[0040] The present invention detects the structural stability of the electrolytic cell based on the first spectrogram. The first spectrogram is specifically a Raman spectrum, and Raman spectroscopy is a non-invasive, highly sensitive, and highly selective spectroscopic technique. The present invention does not need to insert a Raman collector into the electrolytic cell, will not interfere with the normal operation of the electrolytic cell, and can accurately evaluate the structural stability of the electrolytic cell. By detecting Raman spectra and promptly responding to changes in the material structure, the safety and reliability of the electrolytic cell can be improved.

[0041] In some technical solutions, optionally, in the process of obtaining the first spectrogram according to the first parameter, the third processing module specifically is used to: compare the first parameter with a spectral comparison table; and determine the first spectrogram based on the comparison result of the first parameter and the spectral comparison table.

[0042] In some technical solutions, optionally, in the process of determining the structural stability of the electrolytic cell according to the first spectrogram, the fourth processing module specifically is used to: obtain the position of the absorption peak, the light intensity value, and the change value of the light wave frequency in the first spectrogram; and determine the structural stability of the electrolytic cell according to the position of the absorption peak, the light intensity value, and the change value of the light wave frequency.

[0043] According to the third aspect of the present invention, there is provided a storage medium having a computer program stored thereon, and when the program is executed by a processor, the steps of the detection method in the second aspect or any possible implementation manner of the second aspect are implemented.

[0044] According to a fourth aspect of the present invention, there is provided an electronic device, including a memory, a processor, and a computer program stored on the memory and executable on the processor. When the processor executes the program, the steps of the detection method in the second aspect or any possible implementation manner of the second aspect are implemented. Description of the Drawings

[0045] The drawings herein are incorporated into the specification and form a part of this specification, showing embodiments consistent with the present invention, and are used together with the specification to explain the principles of the present invention.

[0046] To more clearly illustrate the technical solutions in the embodiments of the present invention or the prior art, the following will briefly introduce the drawings required for use in the description of the embodiments or related technologies. Obviously, for those of ordinary skill in the art, without creative efforts, other drawings can also be obtained based on these drawings.

[0047] Figure 1 It is a schematic block diagram of the structure of a detection device provided by an embodiment of the present invention;

[0048] Figure 2 It is one of the schematic flowcharts of a detection method provided by an embodiment of the present invention;

[0049] Figure 3 It is another schematic flowchart of a detection method provided by an embodiment of the present invention;

[0050] Figure 4 It is yet another schematic flowchart of a detection method provided by an embodiment of the present invention;

[0051] Figure 5 It is a schematic diagram of the structure of a detection device provided by an embodiment of the present invention;

[0052] Figure 6 It is a schematic diagram of the structure of an electronic device provided by an embodiment of the present invention.

[0053] Among them, Figure 1 The corresponding relationship between the reference numerals in the drawings and the component names is as follows:

[0054] 100 Detection device, 110 Raman collector, 112 First probe, 114 Detection unit, 116 First transmission unit, 118 Second probe, 120 Third probe, 122 Raman receiver, 124 First receiver, 126 Second receiver, 128 Third receiver, 130 First data line, 140 Second data line, 150 Analyzer, 160 Laser emitter, 162 First laser source, 164 Second laser source, 166 Third laser source, 200 Electrolytic cell, 210 Anode region, 220 Cathode region, 230 Electrolyte region. Detailed Embodiments

[0055] To make the objectives, technical solutions and advantages of the embodiments of the present invention clearer, the technical solutions in the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings in the embodiments of the present invention. Apparently, the described embodiments are some but not all of the embodiments of the present invention. All other embodiments obtained by those of ordinary skill in the art based on the embodiments of the present invention without creative efforts shall fall within the protection scope of the present invention.

[0056] As Figure 1 shown, in an embodiment of the present invention, a detection device 100 is proposed. The detection device 100 is used to detect an electrolytic cell 200. The detection device 100 includes: a laser emitter 160, which is disposed opposite to the electrolytic cell 200. The laser emitter 160 can emit laser towards the electrolytic cell 200, and the laser irradiates the gas in the electrolytic cell 200, and the laser generates Raman scattering; a Raman collector 110, which is disposed opposite to the electrolytic cell 200. The Raman collector 110 can collect a first parameter of the laser after Raman scattering; a Raman receiver 122, which is connected to the Raman collector 110 and is used to obtain a first spectrogram according to the first parameter; an analyzer 150, which is connected to the Raman receiver 122 and is used to determine the structural stability of the electrolytic cell 200 according to the first spectrogram.

[0057] The detection device 100 proposed by the present invention is used to detect the electrolytic cell 200. Specifically, the electrolytic cell 200 is a device that converts electrical energy into chemical energy. The electrolytic cell 200 causes an oxidation-reduction reaction at the cathode and anode connections by passing an electric current through an electrolyte solution or a molten electrolyte.

[0058] Specifically, the detection device 100 proposed by the present invention is used to detect the stability of the electrolytic cell 200, and the stability of the electrolytic cell 200 is an important performance index of the electrolytic cell 200.

[0059] The detection device 100 includes a laser emitter 160, a Raman collector 110, a Raman receiver 122 and an analyzer 150. The laser emitter 160 is disposed opposite to the electrolytic cell 200. Specifically, the part of the laser emitter 160 that emits laser is disposed opposite to the surface of the electrolytic cell 200. The laser emitter 160 can emit laser towards the electrolytic cell 200, and the laser irradiates the gas in the electrolytic cell 200, and the laser generates Raman scattering.

[0060] When the laser irradiates the gas in the electrolytic cell 200, the laser irradiates the gas molecules, providing sufficient energy to cause the gas molecules to transition from the ground state to the excited state. When the gas molecules absorb the laser energy and transition to the excited state, the gas molecules vibrate. When the gas molecules vibrate, the polarity of the gas molecules changes, resulting in a change in the scattering light frequency of the laser, and Raman scattering of the laser occurs.

[0061] The Raman collector 110 is disposed opposite to the electrolytic cell 200. Specifically, the Raman collector 110 is disposed opposite to the surface of the electrolytic cell 200 and does not insert into the interior of the electrolytic cell 200. The Raman collector 110 can collect the first parameter of the laser after Raman scattering.

[0062] The Raman receiver 122 is connected to the Raman collector 110. After the Raman collector 110 collects the first parameter of the laser after Raman scattering, the Raman collector 110 communicates with the Raman receiver 122. The Raman collector 110 sends the first parameter to the Raman receiver 122, and the Raman receiver 122 receives this first parameter and processes the first parameter to obtain the first spectrogram according to the first parameter.

[0063] The analyzer 150 is connected to the Raman receiver 122. After the Raman receiver 122 obtains the first spectrogram, the Raman receiver 122 communicates with the analyzer 150, and the Raman receiver 122 sends the first spectrogram to the analyzer 150. After the analyzer 150 obtains the first spectrogram, based on the first spectrogram, the structural stability of the electrolytic cell 200 can be determined.

[0064] Specifically, the electrolytic cell 200 is a proton ceramic electrolytic cell. The proton ceramic electrolytic cell uses a proton-conducting ceramic as an electrolyte and decomposes water into hydrogen and oxygen through an electrochemical reaction. Different from traditional water electrolysis technologies, the proton ceramic electrolytic cell operates at a high temperature, usually between 500°C and 800°C. The high temperature is one of the key features of the proton ceramic electrolytic cell. The relatively high operating temperature increases the electrolysis reaction rate, thereby increasing the production efficiency of hydrogen and oxygen. However, the relatively high operating temperature also has high requirements for material stability. Therefore, it is necessary to monitor the material stability of the electrolytic cell 200 in real time to ensure that the electrolytic cell 200 can operate normally.

[0065] When the detection device 100 proposed by the present invention is used, first, an electrolytic cell experimental system is built. Based on the operating temperature of the electrolytic cell 200, a Raman collector 110, a Raman receiver 122, and an analyzer 150 adapted to this temperature environment are selected, thereby ensuring that the detection device 100 has sufficient stability and sensitivity.

[0066] Use the detection device 100 to detect the stability of the electrolytic cell 200. Turn on the laser emitter 160 to make the laser emitter 160 emit laser light to irradiate the electrolytic cell 200. The laser irradiates the gas in the electrolytic cell 200, and the laser generates Raman scattering.

[0067] Move the Raman collector 110 to the surface of the electrolytic cell 200. During the operation of the electrolytic cell 200, the Raman collector 110 collects the first parameter of the laser after Raman scattering.

[0068] The Raman collector 110 sends a first parameter to the Raman receiver 122. The Raman receiver 122 receives this first parameter, processes the first parameter, obtains a first spectrogram according to the first parameter, and sends the first spectrogram to the analyzer 150. After obtaining the first spectrogram, the analyzer 150 can determine the structural stability of the electrolytic cell 200 based on the first spectrogram.

[0069] Specifically, during the operation of the electrolytic cell 200, the Raman collector 110 can continuously collect the first parameter, so that a first spectrogram can be continuously obtained. The analyzer 150 analyzes the first spectrogram in detail, identifies the position of the absorption peak, the light intensity value, and the change value of the light wave frequency in the first spectrogram, and interprets the chemical reaction and stability change in the electrolytic cell 200 according to the above parameters, so as to determine the structural stability of the electrolytic cell 200 and evaluate the performance of the electrolytic cell 200.

[0070] On the one hand, the detection device 100 proposed by the present invention can achieve real-time detection. The Raman collector 110 and the Raman receiver 122 provide real-time monitoring capabilities and can continuously observe during the operation of the electrolytic cell 200, so as to better determine the performance and stability of the electrolytic cell 200.

[0071] On the other hand, the detection device 100 proposed by the present invention can achieve non-invasive detection. The present invention does not need to insert the Raman collector 110 into the electrolytic cell 200 and will not interfere with the normal operation of the electrolytic cell 200.

[0072] On the other hand, the detection device 100 proposed by the present invention can work under high temperature and high pressure conditions because it uses the Raman collector 110 and the Raman receiver 122, and is suitable for the working environment of the electrolytic cell 200.

[0073] On the other hand, by regulating the laser emitter 160, the Raman collector 110, and the Raman receiver 122, the performance of the electrolytic cell 200 under different experimental conditions can be simulated to evaluate the stability of the electrolytic cell 200 under different environments.

[0074] Such as Figure 1 shown, in some embodiments of the present invention, optionally, the Raman collector 110 is one of a Raman probe or an optical adapter.

[0075] In this technical solution, on the one hand, the Raman collector 110 is a Raman probe. The Raman probe is a probe for optical detection. During the detection process of the detection device 100, the laser emitter 160 emits a beam of laser, which irradiates the gas in the electrolytic cell 200. Raman scattering occurs to the laser, and photons of different frequencies carry information of the substance molecules. These photons can be collected by the Raman probe and converted into optical signals. The Raman probe has the advantages of high sensitivity, high resolution, and high selectivity.

[0076] On the other hand, the Raman collector 110 is an optical adapter, and the optical adapter can be used to detect the laser after Raman scattering. After the laser irradiates the gas in the electrolytic cell 200, light of different frequencies will be scattered. The optical adapter can guide and concentrate these scattered lights to a specific position for subsequent detection and analysis.

[0077] As Figure 1 shown, in some embodiments of the present invention, optionally, the electrolytic cell 200 includes an anode region 210, a cathode region 220, and an electrolyte region 230. The Raman collector 110 is a Raman probe, and the Raman probe includes: a first probe 112 connected to the Raman receiver 122, and the first probe 112 is disposed opposite to the anode region 210 of the electrolytic cell 200; a second probe 118 connected to the Raman receiver 122, and the second probe 118 is disposed opposite to the cathode region 220 of the electrolytic cell 200; a third probe 120 connected to the Raman receiver 122, and the third probe 120 is disposed opposite to the electrolyte region 230 of the electrolytic cell 200.

[0078] In this embodiment, the electrolytic cell 200 specifically includes an anode region 210, a cathode region 220, and an electrolyte region 230. The anode region 210 of the electrolytic cell 200 is the part connected to the positive electrode of the power supply. It is responsible for receiving the current and causing the cations to obtain electrons on the anode surface and undergo a reduction reaction. An anode material is provided in the anode region 210.

[0079] The cathode region 220 of the electrolytic cell 200 is the conductor through which the current enters or leaves the electrolyte during the electrolysis process, and it is also the place where the oxidation-reduction reaction occurs. A cathode material is provided in the cathode region 220.

[0080] An electrolyte is provided in the electrolyte region 230 of the electrolytic cell 200. It directly participates in the electrochemical reaction and serves as a mass transfer medium to transfer the reactants from one electrode to the other electrode.

[0081] The Raman probe includes a first probe 112, a second probe 118, and a third probe 120. The first probe 112 is connected to the Raman receiver 122, and the first probe 112 is disposed opposite to the anode region 210 of the electrolytic cell 200. Raman scattering occurs when the laser irradiates the gas in the anode region 210 of the electrolytic cell 200.

[0082] The second probe 118 is disposed opposite to the cathode region 220 of the electrolytic cell 200, and Raman scattering occurs when the gas in the cathode region 220 of the electrolytic cell 200 is irradiated by a laser.

[0083] The third probe 120 is disposed opposite to the electrolyte region 230 of the electrolytic cell 200, and Raman scattering occurs when the gas in the electrolyte region 230 of the electrolytic cell 200 is irradiated by a laser.

[0084] The first probe 112, the second probe 118, and the third probe 120 can comprehensively obtain the laser after Raman scattering in different regions of the electrolytic cell 200, and collect the changes in the material structure of different parts. The detection device 100 proposed by the present invention can comprehensively reflect the structural stability of the electrolytic cell 200, and the performance evaluation of the electrolytic cell 200 is more accurate. As Figure 1 shown, in some embodiments of the present invention, optionally, the first probe 112 includes: a detection part 114, which is disposed on one side of the anode region 210 of the electrolyte; a first transmission part 116, which is respectively connected to the detection part 114 and the Raman receiver 122.

[0085] In this embodiment, the first probe 112 specifically includes a detection part 114 and a first transmission part 116. The detection part 114 is disposed on one side of the anode region 210 of the electrolyte. The detection part 114 is specifically used to collect the first parameter of the laser after Raman scattering. The first transmission part 116 is respectively connected to the detection part 114 and the Raman receiver 122. The first transmission part 116 can receive the first parameter collected by the detection part 114 and send this first parameter to the Raman receiver 122.

[0086] By providing that the first probe 112 includes a detection part 114 and a first transmission part 116, the present invention enables the first probe 112 to collect the first parameter and also transmit the first parameter.

[0087] Specifically, the structures of the second probe 118 and the third probe 120 are the same as the structure of the first probe 112, that is, both the second probe 118 and the third probe 120 include a detection part 114 and a first transmission part 116. The same structures of the three probes facilitate the arrangement of the detection device 100.

[0088] As Figure 1 shown, in some embodiments of the present invention, optionally, the number of the first probes 112 is multiple, and there is a gap between two adjacent first probes 112 among the multiple first probes 112.

[0089] In this embodiment, the number of the first probes 112 is multiple, and each of the multiple first probes 112 can collect the first parameter of the laser after Raman scattering. Specifically, there is a gap between two adjacent first probes 112 among the multiple first probes 112. During the process of collecting the laser after Raman scattering, the multiple first probes 112 operate simultaneously. And because there is a gap between two adjacent first probes 112 among the multiple first probes 112, the collection range of the first probes 112 for the laser after Raman scattering can be increased, thereby improving the accuracy of finally determining the structural stability of the electrolytic cell 200.

[0090] Specifically, the multiple first probes 112 are arranged at intervals along the length direction of the anode region 210 of the electrolytic cell 200. That is, when arranging the multiple first probes 112, first, the multiple first probes 112 are opposed to the surface of the anode region 210 of the electrolytic cell 200, and then the multiple first probes 112 are arranged in a row along the length direction of the anode region 210 of the electrolytic cell 200, and a gap is left between two adjacent first probes 112.

[0091] As Figure 1 shown, in some embodiments of the present invention, optionally, the number of the second probes 118 is multiple, and the multiple second probes 118 are arranged at intervals along the length direction of the cathode region 220 of the electrolytic cell 200.

[0092] In this embodiment, the number of the second probes 118 is multiple, and each of the multiple second probes 118 can collect the first parameter of the laser after Raman scattering. Specifically, the multiple second probes 118 are arranged at intervals along the length direction of the cathode region 220 of the electrolytic cell 200. That is, when arranging the multiple second probes 118, first, the multiple second probes 118 are opposed to the surface of the cathode region 220 of the electrolytic cell 200, and then the multiple second probes 118 are arranged in a row along the length direction of the cathode region 220 of the electrolytic cell 200, and a gap is left between two adjacent second probes 118.

[0093] During the process of collecting the first parameter of the laser after Raman scattering, the multiple second probes 118 operate simultaneously. And because there is a gap between two adjacent second probes 118 among the multiple second probes 118, the collection range of the second probes 118 for the laser after Raman scattering can be increased, thereby improving the accuracy of finally determining the structural stability of the electrolytic cell 200.

[0094] As Figure 1 shown, in some embodiments of the present invention, the number of the third probes 120 is multiple, and the multiple third probes 120 are arranged at intervals along the width direction of the electrolyte region 230 of the electrolytic cell 200.

[0095] In this embodiment, the number of the third probes 120 is multiple, and each of the multiple third probes 120 can collect the first parameter of the laser after Raman scattering. Specifically, the multiple third probes 120 are arranged at intervals along the width direction of the electrolyte region 230 of the electrolytic cell 200. That is, when arranging the multiple third probes 120, first, the multiple third probes 120 are opposed to the surface of the electrolyte region 230 of the electrolytic cell 200, and then the multiple third probes 120 are arranged in a row along the width direction of the electrolytic cell 200, with a gap left between two adjacent third probes 120.

[0096] During the process of collecting the first parameter of the laser after Raman scattering, the multiple third probes 120 operate simultaneously. And because there is a gap between two adjacent third probes 120 among the multiple third probes 120, the collection range of the laser after Raman scattering by the third probes 120 can be increased, thereby improving the accuracy of finally determining the structural stability of the electrolytic cell 200.

[0097] In some embodiments of the present invention, optionally, the laser emitter 160 includes: a first laser source 162, which is disposed opposite to the anode region 210 of the electrolytic cell 200, and the first laser source 162 can emit laser light to the anode region 210; a second laser source 164, which is disposed opposite to the cathode region 220 of the electrolytic cell 200, and the second laser source 164 can emit laser light to the cathode region 220; a third laser source 166, which is disposed opposite to the electrolyte region 230 of the electrolytic cell 200, and the third laser source 166 can emit laser light to the electrolyte region 230.

[0098] In this embodiment, the structure of the laser emitter 160 is defined. Specifically, the laser emitter 160 includes a first laser source 162, a second laser source 164, and a third laser source 166. The first laser source 162 is disposed opposite to the anode region 210 of the electrolytic cell 200, and the first laser source 162 can emit laser light to the anode region 210. The laser irradiates the air in the anode region 210 of the electrolytic cell 200, and Raman scattering of the laser occurs. The second laser source 164 can emit laser light to the cathode region 220. The laser irradiates the air in the cathode region 220 of the electrolytic cell 200, and Raman scattering of the laser occurs. The third laser source 166 can emit laser light to the electrolyte region 230. The laser irradiates the air in the electrolyte region 230 of the electrolytic cell 200, and Raman scattering of the laser occurs.

[0099] By setting the laser emitter 160 to include the first laser source 162, the second laser source 164, and the third laser source 166, the present invention enables the laser emitter 160 to comprehensively irradiate different regions of the electrolytic cell 200. Consequently, the structural stability of the electrolytic cell 200 finally determined can comprehensively consider different regions of the electrolytic cell 200, and the detection result of the structural stability is more accurate.

[0100] Such asFigure 1 As shown, in some embodiments of the present invention, optionally, the Raman receiver 122 includes: a first receiver 124, connected to the first probe 112 and the analyzer 150 respectively; a second receiver 126, connected to the second probe 118 and the analyzer 150 respectively; and a third receiver 128, connected to the third probe 120 and the analyzer 150 respectively.

[0101] In this embodiment, the Raman receiver 122 specifically includes a first receiver 124, a second receiver 126, and a third receiver 128. Among them, the first receiver 124 is connected to the first probe 112 and the analyzer 150 respectively. The first receiver 124 can receive the first parameter of the laser that has undergone Raman scattering after the laser collected by the first probe 112 irradiates the air in the anode region 210 of the electrolytic cell 200, and can generate a first spectrogram corresponding to this first parameter and send it to the analyzer 150.

[0102] The second receiver 126 is connected to the second probe 118 and the analyzer 150 respectively. The second receiver 126 can receive the first parameter of the laser that has undergone Raman scattering after the laser collected by the second probe 118 irradiates the air in the cathode region 220 of the electrolytic cell 200, and can generate a first spectrogram corresponding to this first parameter and send it to the analyzer 150.

[0103] The third receiver 128 is connected to the third probe 120 and the analyzer 150 respectively. The third receiver 128 can receive the first parameter of the laser that has undergone Raman scattering after the laser collected by the third probe 120 irradiates the air in the electrolyte region 230 of the electrolytic cell 200, and can generate a first spectrogram corresponding to this first parameter and send it to the analyzer 150.

[0104] The present invention provides that the Raman receiver 122 includes a first receiver 124, a second receiver 126, and a third receiver 128, so that the Raman receiver 122 can comprehensively receive the laser after Raman scattering in the anode region 210, cathode region 220, and electrolyte of the electrolytic cell 200, and finally accurately determine the structural stability of the electrolytic cell 200. Moreover, since the present invention detects the structural stability of the electrolytic cell 200 based on Raman scattering, non-invasive detection can be realized, and the electrolytic cell 200 can also work normally during the detection process.

[0105] As Figure 1 shown, in some embodiments of the present invention, optionally, the first receiver 124 includes: a second transmission part, connected to the first probe 112, for receiving the first parameter of the laser collected by the first probe 112; a spectral processor, connected to the second transmission part, for obtaining a first spectrogram according to the first parameter; and a third transmission part, connected to the spectral processor and the analyzer 150 respectively, for sending the first spectrogram to the analyzer 150.

[0106] In this embodiment, the specific components of the first receiver 124 are defined. Among them, the first receiver 124 includes a second transmission unit, a spectral processor, and a third transmission unit. The second transmission unit is connected to the first probe 112 and is used to receive the first parameter of the laser collected by the first probe 112. That is, the first transmission unit 116 is a component that realizes data transmission between the first probe 112 and the spectral processor. The spectral processor is connected to the second transmission unit and is used to obtain the first spectrogram according to the first parameter, thereby realizing the determination of the first spectrogram by the first receiver 124. The third transmission unit is respectively connected to the spectral processor and the analyzer 150 and is used to send the first spectrogram to the analyzer 150. That is, the second transmission unit is a component that realizes data transmission between the spectral processor and the analyzer 150.

[0107] During the process of the detection device 100 detecting the electrolytic cell 200, after the first probe 112 collects the first parameter of the laser after Raman scattering, the first probe 112 sends the first parameter to the first receiver 124, and the first receiver 124 correspondingly receives the first parameter. Then, the first receiver 124 transmits the first parameter to the spectral processor for the spectral processor to process the first parameter and determine the first spectrogram according to the first parameter. After obtaining the first spectrogram, the spectral processor sends the first spectrogram to the analyzer 150, and the analyzer 150 can finally determine the structural stability of the electrolytic cell 200 through the first spectrogram.

[0108] Through the above structural settings of the first receiver 124, the accurate determination of the first spectrogram and the stable transmission of the first parameter and the first spectrogram can be ensured. Finally, the structural stability of the electrolytic cell 200 is determined based on Raman scattering, realizing non-invasive detection, and the detection process will not affect the normal operation of the electrolytic cell 200.

[0109] Specifically, both the second receiver 126 and the third receiver 128 have the same structure as the first receiver 124.

[0110] As Figure 1 shown, in some embodiments of the present invention, optionally, the detection device 100 further includes: a first data line 130. One end of the first data line 130 is connected to the Raman collector 110, and the other end of the first data line 130 is connected to the Raman receiver 122.

[0111] In this embodiment, the detection device 100 further includes a first data line 130. One end of the first data line 130 is connected to the Raman receiver 122, and the other end of the first data line 130 is connected to the Raman receiver 122. The first data line 130 is used for transmission. Among them, the Raman collector 110 collects the first parameter of the laser after Raman scattering, which can be transmitted to the Raman receiver 122 through the first data line 130 for the Raman receiver 122 to obtain the first spectrogram according to the first parameter.

[0112] The present invention provides that the detection device 100 further includes a first data line 130, and the Raman collector 110 and the Raman receiver 122 are connected by a wired connection for data transmission, which can improve the stability of the first parameter transmission, avoid the signal interference and instability problems that may occur in wireless connections, and has a relatively fast transmission speed.

[0113] On the other hand, the data transfer of the first parameter can also be carried out by means of wireless transmission. Specifically, a data transmitter is provided on the Raman collector 110, and a data receiver is correspondingly provided on the Raman receiver 122. The first parameter is sent to the data receiver through the data transmitter using the network.

[0114] The wireless transmission method does not require a data line to connect devices, so it can move between different locations and maintain the connection to adapt to their respective environments. Wireless transmission can also avoid the limitations of cables, so data can be transmitted faster, improving the real-time performance of communication.

[0115] As Figure 1 shown, in some embodiments of the present invention, optionally, the detection device 100 further includes: a second data line 140. One end of the second data line 140 is connected to the Raman receiver 122, and the other end of the second data line 140 is connected to the analyzer 150.

[0116] In this embodiment, the detection device 100 further includes a second data line 140. One end of the second data line 140 is connected to the Raman receiver 122, and the other end of the second data line 140 is connected to the analyzer 150. The second data line 140 is used for transmission. Among them, the first spectrogram obtained by the Raman receiver 122 according to the first parameter can be transmitted to the analyzer 150 through the second data line 140 for the analyzer 150 to determine the structural stability of the electrolytic cell 200 according to the first spectrogram.

[0117] The present invention provides that the detection device 100 further includes a second data line 140, and the Raman receiver 122 and the analyzer 150 are connected by a wired connection for data transmission, which can improve the stability of the first spectrogram transmission, avoid the signal interference and instability problems that may occur in wireless connections, and has a relatively fast transmission speed.

[0118] Based on the same inventive concept, an embodiment of the present invention further provides a detection method, as follows Figure 2 As shown, the detection method proposed by the embodiment of the present invention includes:

[0119] S302: Control the laser emitter to emit laser light towards the electrolytic cell. The laser light irradiates the gas inside the electrolytic cell, and Raman scattering is generated by the laser light

[0120] S304: Obtain the first parameter of the first laser light after Raman scattering;

[0121] S306: Obtain the first spectrogram according to the first parameter;

[0122] S308: Determine the structural stability of the electrolytic cell according to the first spectrogram.

[0123] The detection method proposed in the second aspect of the present invention is used to detect the electrolytic cell through a detection device, specifically to detect the structural stability of the electrolytic cell.

[0124] The detection device includes a laser emitter, and the laser emitter can generate and emit laser light. Specifically, the detection device is the detection device proposed in the first aspect of the present invention.

[0125] The detection method includes first controlling the laser emitter to emit laser light towards the electrolytic cell. The laser light irradiates the gas inside the electrolytic cell, and Raman scattering is generated by the laser light. Collect the first parameter of the laser light after Raman scattering, and then process the first parameter. Obtain the first spectrogram according to the first parameter. After obtaining the first spectrogram, based on the first spectrogram, the structural stability of the electrolytic cell can be determined.

[0126] The detection method proposed by the present invention detects the structural stability of the electrolytic cell based on the first spectrogram. The first spectrogram is specifically a Raman spectrum, and Raman spectroscopy is a non-invasive, highly sensitive, and highly selective spectroscopic technique. The present invention does not need to insert the detection probe into the electrolytic cell, will not interfere with the normal operation of the electrolytic cell, and can accurately evaluate the structural stability of the electrolytic cell. By detecting the Raman spectrum and promptly responding to changes in the material structure, the safety and reliability of the electrolytic cell can be improved.

[0127] Specifically, for the detection method proposed by the present invention, the electrolytic cell is detected through the detection device proposed by the present invention. Among them, the detection method can control the detection device. Specifically, in the process of obtaining the first parameter of the first laser light after Raman scattering, it is specifically to control the Raman collector to obtain the first parameter of the first laser light after Raman scattering. In the process of obtaining the first spectrogram according to the first parameter, it is specifically to control the Raman to obtain the first spectrogram according to the first parameter. In the process of determining the structural stability of the electrolytic cell according to the first spectrogram, it is specifically to control the analyzer to determine the structural stability of the electrolytic cell according to the first spectrogram.

[0128] As Figure 3 shown, a detection method provided by an embodiment of the present invention further includes:

[0129] S402: Control the laser emitter to emit laser light towards the electrolytic cell. The laser light irradiates the gas inside the electrolytic cell, and Raman scattering is generated by the laser light;

[0130] S404: Obtain the first parameter of the first laser light after Raman scattering;

[0131] S406: Compare the first parameter with the spectral comparison table;

[0132] S408: Based on the comparison result between the first parameter and the spectral comparison table, determine the first spectrogram;

[0133] S410: Determine the structural stability of the electrolytic cell according to the first spectrogram.

[0134] In this embodiment, in the detection method proposed by the present invention, the process of obtaining the first spectrogram according to the first parameter includes: First, compare the first parameter with the spectral comparison table. The spectral comparison table is a tool for comparing and identifying spectral features. By comparing the first parameter with the spectral comparison table and querying the spectrogram corresponding to the first parameter in the spectral comparison table, the first spectrogram can be determined based on the comparison result between the first parameter and the spectral comparison table.

[0135] By comparing the first parameter with the spectral comparison table, the present invention can accurately determine the first spectrogram corresponding to the first parameter, and finally can accurately determine the structural stability of the electrolytic cell.

[0136] As Figure 4 shown, a detection method provided by an embodiment of the present invention further includes:

[0137] S502: Control the laser emitter to emit laser light towards the electrolytic cell. The laser light irradiates the gas inside the electrolytic cell, and Raman scattering is generated by the laser light

[0138] S504: Obtain the first parameter of the first laser light after Raman scattering;

[0139] S506: Obtain the first spectrogram according to the first parameter;

[0140] S508: Obtain the position, light intensity value, and light wave frequency change value of the absorption peak in the first spectrogram;

[0141] S510: Determine the structural stability of the electrolytic cell according to the position, light intensity value, and light wave frequency change value of the absorption peak.

[0142] In this embodiment, the process of determining the structural stability of the electrolytic cell according to the first spectrogram specifically includes: First, obtain the position of the absorption peak, the light intensity value, and the change value of the light wave frequency in the first spectrogram. Then, the fourth processing module determines the structural stability of the electrolytic cell according to the position of the absorption peak, the light intensity value, and the change value of the light wave frequency.

[0143] The present invention explains the chemical reactions and stability changes in the electrolytic cell according to the above parameters, thereby determining the structural stability of the electrolytic cell and evaluating the performance of the electrolytic cell.

[0144] Specifically, after the structure of the electrolytic cell material changes, the first spectrogram of the material will also change. Therefore, in the detection method proposed in this application, first observe whether the Raman spectrum is the target material and whether the spectrum is stable during the operation of the electrolytic cell. If the spectrum changes, judge the change of the material structure through the change of the absorption peak, the generation of new characteristic peaks, and the disappearance of old characteristic peaks, and the generation of new substances after decomposition. At the same time, compare the change of the electrolytic cell performance, establish the relationship between the material structure change and the performance change, and evaluate the performance of the electrolytic cell.

[0145] Based on the same inventive concept, as Figure 5 shown, an embodiment of the present invention further provides a detection device 600. The detection device 600 is used to detect the electrolytic cell through a detection device. The detection device includes a laser emitter. The detection device 600 includes: a first processing module 610, configured to control the laser emitter to emit laser light towards the electrolytic cell. The laser light irradiates the gas in the electrolytic cell, and the laser generates Raman scattering; a second processing module 620, configured to obtain a first parameter of the laser light after Raman scattering; a third processing module 630, configured to obtain a first spectrogram according to the first parameter; a fourth processing module 640, configured to determine the structural stability of the electrolytic cell according to the first spectrogram.

[0146] The detection device 600 proposed in the third aspect of the present invention includes a first processing module 610, a second processing module 620, a third processing module 630, and a fourth processing module 640. The first processing module 610 is configured to control the laser emitter to emit laser light towards the electrolytic cell. The laser light irradiates the gas in the electrolytic cell, and the laser generates Raman scattering.

[0147] The second processing module 620 is configured to obtain a first parameter of the laser light after Raman scattering. The third processing module 630 is configured to obtain a first spectrogram according to the first parameter. The fourth processing module 640 is configured to determine the structural stability of the electrolytic cell according to the first spectrogram.

[0148] The present invention detects the structural stability of an electrolytic cell based on a first spectrogram. The first spectrogram is specifically a Raman spectrogram, and Raman spectroscopy is a non-invasive, highly sensitive, and highly selective spectroscopic technique. The present invention does not require inserting a Raman collector into the electrolytic cell, does not interfere with the normal operation of the electrolytic cell, and can accurately evaluate the structural stability of the electrolytic cell. By detecting the Raman spectrogram and promptly responding to changes in the material structure, the safety and reliability of the electrolytic cell can be improved.

[0149] Specifically, the detection device 600 proposed by the present invention is used to detect an electrolytic cell through the detection equipment proposed by the present invention. Specifically, it controls the operation of the detection equipment. Among them, the first processing module 610 is connected to the laser emitter, and the first processing module 610 controls the laser emitter to emit laser light towards the electrolytic cell. The laser light irradiates the gas inside the electrolytic cell, and Raman scattering is generated by the laser. The second processing module 620 is connected to the Raman collector and is used to control the Raman collector to obtain the first parameter of the laser light after Raman scattering. The third processing module 630 is connected to the Raman receiver 122 and is used to control the Raman receiver 122 to obtain the first spectrogram according to the first parameter. The fourth processing module 640 is connected to the analyzer and is used to control the analyzer to determine the structural stability of the electrolytic cell according to the first spectrogram.

[0150] In some embodiments of the present invention, optionally, in the process of obtaining the first spectrogram according to the first parameter, the third processing module 630 specifically is used for: comparing the first parameter with a spectral comparison table; determining the first spectrogram based on the comparison result between the first parameter and the spectral comparison table.

[0151] In this embodiment, in the process of obtaining the first spectrogram according to the first parameter, the third processing module 630 specifically is used for comparing the first parameter with the spectral comparison table, querying the spectrogram corresponding to the first parameter in the spectral comparison table, and thus determining the first spectrogram based on the comparison result between the first parameter and the spectral comparison table.

[0152] By comparing the first parameter with the spectral comparison table, the present invention can accurately determine the first spectrogram corresponding to the first parameter, and finally accurately determine the structural stability of the electrolytic cell.

[0153] In some embodiments of the present invention, optionally, in the process of determining the structural stability of the electrolytic cell according to the first spectrogram, the fourth processing module 640 specifically is used for: obtaining the position of the absorption peak, the light intensity value, and the change value of the light wave frequency in the first spectrogram; determining the structural stability of the electrolytic cell according to the position of the absorption peak, the light intensity value, and the change value of the light wave frequency.

[0154] In this embodiment, in the process of determining the structural stability of the electrolytic cell according to the first spectrogram, the fourth processing module 640 is specifically configured to first obtain the position of the absorption peak, the light intensity value, and the light wave frequency change value in the first spectrogram. Then, the fourth processing module 640 determines the structural stability of the electrolytic cell according to the position of the absorption peak, the light intensity value, and the light wave frequency change value. The present invention explains the chemical reactions and stability changes in the electrolytic cell based on the above parameters, thereby determining the structural stability of the electrolytic cell and evaluating the performance of the electrolytic cell.

[0155] Based on the same inventive concept, an embodiment of the present invention further provides a storage medium, on which a computer program is stored, and when the program is executed by a processor, the steps of the detection method in any of the above possible embodiments are implemented.

[0156] In this embodiment, the storage medium proposed by the present invention, since the steps of the detection method in any of the above possible embodiments are implemented when the program is executed by the processor, thus has all the beneficial effects of the detection method in any of the above embodiments, which will not be elaborated here.

[0157] Optionally, the storage medium may be a non-transitory computer-readable storage medium. For example, the non-transitory computer-readable storage medium may be a ROM, a random access memory (RAM), a CD-ROM, a magnetic tape, a floppy disk, and an optical data storage device, etc.

[0158] Based on the same inventive concept, as Figure 6 shown, an embodiment of the present invention further provides an electronic device 700, including a memory (such as a non-volatile memory), a processor 720, and a computer program stored in the memory 710 and executable on the processor 720. When the processor 720 executes the program, the steps of the detection method in any of the above possible embodiments are implemented. Of course, the processor 720 can also be used to process other data or perform operations. The electronic device 700 may be a device such as a PC, a server, or a terminal.

[0159] In this embodiment, for the electronic device 700 proposed by the present invention, when the processor 720 executes the program, the steps of the detection method in any possible implementation manner in any of the above embodiments are implemented. Therefore, it has all the beneficial effects of the detection method in any of the above embodiments, which will not be elaborated here.

[0160] It should be noted that in this text, relational terms such as "first" and "second" are only used to distinguish one entity or operation from another entity or operation, and do not necessarily require or imply any actual relationship or order between these entities or operations. Moreover, the term "comprising", "including" or any other variation thereof is intended to cover non-exclusive inclusion, so that a process, method, article or device comprising a series of elements not only includes those elements, but also includes other elements not expressly listed, or further includes elements inherent to such process, method, article or device. Without further limitation, an element defined by the statement "comprising an..." does not exclude the presence of additional identical elements in the process, method, article or device comprising said element.

[0161] The above are only specific embodiments of the present invention, enabling those skilled in the art to understand or implement the present invention. Various modifications to these embodiments will be obvious to those skilled in the art, and the general principles defined herein can be implemented in other embodiments without departing from the spirit or scope of the present invention. Therefore, the present invention will not be limited to these embodiments shown herein, but rather will conform to the widest scope consistent with the principles and novel features claimed herein.

Claims

1. A detection device (100), characterized in that, A detection device for an electrolytic cell (200), the detection device (100) comprising: A laser emitter (160), which is disposed opposite to the electrolytic cell (200), the laser emitter (160) being capable of emitting laser towards the electrolytic cell (200), the laser irradiating the gas inside the electrolytic cell (200), and the laser generating Raman scattering; A Raman collector (110), which is disposed opposite to the electrolytic cell (200), the Raman collector (110) being capable of collecting a first parameter of the laser after Raman scattering; A Raman receiver (122), the Raman receiver (122) being connected to the Raman collector (110) for obtaining a first spectrogram according to the first parameter; An analyzer (150), which is connected to the Raman receiver (122) for determining the structural stability of the electrolytic cell (200) according to the first spectrogram.

2. The detection device (100) according to claim 1, wherein: The Raman collector (110) is one of a Raman probe or an optical adapter.

3. The detection device (100) according to claim 2, characterized in that, The electrolytic cell (200) includes an anode region (210), a cathode region (220), and an electrolyte region (230), the Raman collector (110) is the Raman probe, and the Raman probe includes: A first probe (112), which is connected to the Raman receiver (122), the first probe (112) being disposed opposite to the anode region (210) of the electrolytic cell (200); A second probe (118), which is connected to the Raman receiver (122), the second probe (118) being disposed opposite to the cathode region (220) of the electrolytic cell (200); A third probe (120), which is connected to the Raman receiver (122), the third probe (120) being disposed opposite to the electrolyte region (230) of the electrolytic cell (200).

4. The detection device (100) according to claim 3, characterized in that, The first probe (112) includes: A detection part (114), which is disposed on one side of the anode region (210) of the electrolyte; A first transmission part (116), which is respectively connected to the detection part (114) and the Raman receiver (122).

5. The detection device (100) according to claim 3, wherein: The number of the first probes (112) is multiple, and there is a gap between two adjacent ones of the multiple first probes (112).

6. The detection device (100) according to claim 3, wherein: The number of the second probes (118) is multiple, and the multiple second probes (118) are arranged at intervals along the length direction of the cathode region (220) of the electrolytic cell (200).

7. The detection device (100) according to claim 3, wherein: The number of the third probes (120) is multiple, and the multiple third probes (120) are arranged at intervals along the width direction of the electrolyte region (230) of the electrolytic cell (200).

8. The detection device (100) according to claim 3, characterized in that, The laser emitter (160) includes: A first laser source (162) is disposed opposite to the anode region (210) of the electrolytic cell (200), and the first laser source (162) is capable of emitting laser light towards the anode region (210); A second laser source (164) is disposed opposite to the cathode region (220) of the electrolytic cell (200), and the second laser source (164) is capable of emitting laser light towards the cathode region (220); A third laser source (166) is disposed opposite to the electrolyte region (230) of the electrolytic cell (200), and the third laser source (166) is capable of emitting laser light towards the electrolyte region (230).

9. The detection device (100) according to claim 3, characterized in that, The Raman receiver (122) includes: A first receiver (124) is respectively connected to the first probe (112) and the analyzer (150); A second receiver (126) is respectively connected to the second probe (118) and the analyzer (150); A third receiver (128) is respectively connected to the third probe (120) and the analyzer (150).

10. The detection device (100) according to claim 9, characterized in that, The first receiver (124) includes: A second transmission part is connected to the first probe (112) and is configured to receive a first parameter of the laser light collected by the first probe (112); A spectrum processor is connected to the second transmission part and is configured to obtain a first spectrogram according to the first parameter; A third transmission part is respectively connected to the spectrum processor and the analyzer (150) and is configured to send the first spectrogram to the analyzer (150).

11. The detection device (100) according to any one of claims 1 to 10, characterized in that, The detection device (100) further includes: A first data line (130), one end of the first data line (130) is connected to the Raman collector (110), and the other end of the first data line (130) is connected to the Raman receiver (122).

12. The detection device (100) according to any one of claims 1 to 10, characterized in that, The detection device (100) further includes: A second data line (140), one end of the second data line (140) is connected to the Raman receiver (122), and the other end of the second data line (140) is connected to the analyzer (150).

13. A detection method, characterized in that, For detecting an electrolytic cell by a detection device, the detection device includes a laser emitter, and the detection method includes: Controlling the laser emitter to emit laser light towards the electrolytic cell, the laser light irradiates the gas in the electrolytic cell, and the laser light generates Raman scattering; Obtaining a first parameter of the laser light after Raman scattering; Obtaining a first spectrogram according to the first parameter; Determining the structural stability of the electrolytic cell according to the first spectrogram.

14. The detection method according to claim 13, wherein The obtaining the first spectrogram according to the first parameter includes: Comparing the first parameter with a spectrum comparison table; Determining the first spectrogram based on the comparison result between the first parameter and the spectrum comparison table.

15. The detection method according to claim 13, characterized in that, The determining the structural stability of the electrolytic cell according to the first spectrogram includes: Obtaining the position of the absorption peak, the light intensity value and the change value of the light wave frequency in the first spectrogram; Determining the structural stability of the electrolytic cell according to the position of the absorption peak, the light intensity value and the change value of the light wave frequency.

16. A detection device, characterized in that, For detecting an electrolytic cell through a detection device, the detection device includes a laser emitter, and the detection device includes: A first processing module for controlling the laser emitter to emit laser light towards the electrolytic cell, the laser light irradiating the gas inside the electrolytic cell, and the laser light generating Raman scattering; A second processing module for acquiring a first parameter of the laser light after Raman scattering; A third processing module for acquiring a first spectrogram according to the first parameter; A fourth processing module for determining the structural stability of the electrolytic cell according to the first spectrogram.

17. The detection device according to claim 16, wherein The acquiring of the first spectrogram according to the first parameter includes: Comparing the first parameter with a spectral comparison table; Determining the first spectrogram based on the comparison result between the first parameter and the spectral comparison table.

18. The detection device according to claim 17, wherein The determining of the structural stability of the electrolytic cell according to the first spectrogram includes: Acquiring the position of the absorption peak, the light intensity value, and the change value of the light wave frequency in the first spectrogram; Determining the structural stability of the electrolytic cell according to the position of the absorption peak, the light intensity value, and the change value of the light wave frequency.

19. A storage medium, on which a computer program is stored, characterized in that, When the program is executed by a processor, the steps of the detection method according to any one of claims 13 to 15 are implemented.

20. An electronic device, comprising a memory, a processor, and a computer program stored on the memory and executable on the processor, characterized in that, When the processor executes the program, the steps of the detection method according to any one of claims 13 to 15 are implemented.

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