Energy-saving type gas treatment device for carbon reduction optimization and use method of energy-saving type gas treatment device

Abstract

The invention discloses an energy-saving gas treatment device for carbon reduction optimization and a use method of the energy-saving gas treatment device, and belongs to the technical field of gas treatment. An energy-saving gas treatment device for carbon reduction optimization comprises a containing barrel, a first connecting end is arranged on one side of the upper end of the outer portion of the containing barrel, a base is arranged at the lower end of the outer portion of the containing barrel, and connecting grooves are formed in the middle of the upper end of the base and around the upper end of the base in a surrounding mode. According to the gas treatment device, the problems that when an existing gas treatment device is used and used for stirring activated carbon in a pipe body, large-range stirring of the activated carbon can cause equipment noise, the shaking frequency is large, and the connection stability is affected are solved; the second gear can be driven to rotate through transmission of the transmission belt, the first transmission rod and the first gear, and the rotation of the second gear can drive the screw rod at the lower end to rotate synchronously.

Description

Technical Field

[0001] The present invention relates to the technical field of gas processing, and in particular to an energy-saving gas processing device for carbon reduction optimization and a method of using the same. Background Art

[0002] The energy-saving gas treatment device is designed specifically to reduce carbon emissions. It is an innovative device that integrates high-efficiency energy-saving technology and advanced gas treatment technology. It significantly reduces energy consumption and carbon emissions in the gas treatment process by optimizing the gas flow path, improving energy conversion efficiency and using clean energy as a power source. The device can not only effectively remove or convert harmful gas components, but also recycle and reuse the useful resources therein, achieving a dual improvement in environmental protection and economic benefits.

[0003] A Chinese patent with publication number CN221107442U discloses an energy-saving gas treatment device for carbon reduction optimization, including a second motor, a partition, a shaft, auger blades and activated carbon. The activated carbon is arranged in the middle of the tube body and between the two partitions. The shaft is driven to rotate by the second motor, so that the auger blades stir the activated carbon inside the tube body and turn the material up and down, thereby changing the contact surface between the activated carbon particles and the air, and then fully utilizing the activated carbon.

[0004] When the above-mentioned patented gas treatment device uses and stirs the activated carbon in the tube body, the purpose is to stir the activated carbon and allow the gas to fully contact the activated carbon. However, large-scale stirring of the activated carbon will cause equipment noise and high shaking frequency, affecting the stability of the connection. In addition, the gas flow trajectory is fixed. Simply relying on stirring the activated carbon cannot allow the gas to fully contact the activated carbon at different positions. Summary of the invention

[0005] The purpose of the present invention is to provide an energy-saving gas treatment device for carbon reduction optimization and a method of using the same. In the process of the gas passing through the second connecting end and flowing into the interior of the storage barrel, the motor drives the transmission plate to rotate and adjust the gas discharge position. At the same time, after being transmitted by the transmission belt, the first transmission rod and the first gear, the second gear can be driven to rotate. The rotation of the second gear can drive the spiral rod at the lower end to rotate synchronously, and the graphene is stirred while adjusting the position of the gas flowing into the interior of the storage barrel, thereby solving the problems raised in the above-mentioned background technology.

[0006] To achieve the above-mentioned objectives, the present invention provides the following technical solutions: an energy-saving gas treatment device for carbon reduction optimization, comprising a receiving barrel, a first connecting end is provided on one side of the upper end of the outside of the receiving barrel, a base is provided on the lower end of the outside of the receiving barrel, a connecting groove is provided in the middle of the upper end of the base and around the upper end of the base, a connecting strip connected to the connecting groove slot is welded at the lower end of the receiving barrel toward the inside of the connecting groove, a transmission plate embedded in the inside of the base and slidably connected to the inside of the base is provided at the upper end of the inside of the base, a second connecting end is welded on one side of the center position of the transmission plate, the transmission plate can be rotated in the base to adjust the position of the second connecting end, and the adjustment of the position of the second connecting end can cope with different positions of the gas flowing into the receiving barrel, so that the graphene can fully contact the exhaust gas.

[0007] Preferably, a spiral rod is provided on the other side of the center position of the receiving barrel, a second gear is welded on the upper end of the spiral rod, and a first gear meshingly connected with each other is provided on the other side of the outside of the second gear. The spiral rod is driven to rotate periodically after being driven by the first transmission rod. The rotation of the spiral rod can longitudinally push and flip the contacting graphene, flip and adjust the direction in which the graphene contacts the exhaust gas.

[0008] Preferably, a second transmission rod rotatably connected to the inside of the base is welded to the lower end of the transmission plate, a third gear is provided on one side of the outside of the second transmission rod, a quarter of the outside of the second transmission rod is provided with a tooth groove meshing with the outside of the third gear, and a first transmission rod is welded to the lower end of the first gear. The lower end of the outside of the third gear and the lower end of the outside of the first transmission rod are connected by a transmission belt. The transmission of the transmission belt can make the second transmission rod rotate to drive the third gear, so that the first transmission rod and the spiral rod can rotate synchronously.

[0009] Preferably, a support rod is welded to one side of the upper end of the base, a first connecting ring is welded to the upper end of the support rod, a second connecting ring is provided at the lower end of the first connecting ring and is sealed and connected via a hose, and the outer portion of the second connecting ring cooperates with the internal thread of the first connecting end, and the second connecting ring can be embedded in the interior of the receiving barrel when rotated, and embedding in the interior of the receiving barrel can facilitate the discharge of gas inside the receiving barrel and guide the discharged gas.

[0010] Preferably, a heating wire is provided on one side of the inner center position of the base, and the transmitted gas can be actively heated by the heating wire. While heating, the heating wire can heat the graphene inside the storage barrel to clean the graphene inside the storage barrel.

[0011] Preferably, a pollutant concentration sensor is provided on the inner wall of the first connecting ring, and the exhaust gas can be detected by the pollutant concentration sensor.

[0012] The present invention provides another technical solution: an energy-saving gas processing device for carbon reduction optimization, further comprising a control panel at the front end of a base, wherein the control panel has an energy-saving system built therein, and the energy-saving system comprises a control module: used to adjust the stirring speed and time parameters of the screw rod according to the processing requirements;

[0013] Power transmission module: used to provide the power required by the spiral rod stirring mechanism to ensure the continuous and stable stirring action;

[0014] Temperature control module: used to start the heating wire as needed, start and increase the temperature of the gas and activated carbon, and adapt to the temperature of the environment where the equipment is placed;

[0015] Exhaust gas detection module: used to monitor the ability of activated carbon to adsorb pollutants during gas treatment through a pollutant concentration sensor inside the first connecting ring;

[0016] Activated Carbon Evaluation Module: Used to predict the service life and exhaust gas treatment efficiency of activated carbon through the activated carbon evaluation module.

[0017] Preferably, the energy-saving system further includes:

[0018] A parameter extraction module, used for extracting pollutant concentration parameters obtained by the pollutant concentration sensor in real time;

[0019] A collection frequency dynamic acquisition module, used to adjust the pollutant concentration collection frequency in real time according to the pollutant concentration parameter;

[0020] The pollutant concentration evaluation coefficient acquisition module is used to obtain the pollutant concentration evaluation coefficient using the pollutant concentration parameter; wherein the pollutant concentration evaluation coefficient is obtained by the following formula:

[0021]

[0022] Where S represents the pollutant concentration evaluation coefficient; n represents the total number of pollutant concentration parameter collections; C i represents the concentration parameter value corresponding to the i-th pollutant concentration parameter collection; C i-1 represents the concentration parameter value corresponding to the i-1th pollutant concentration parameter collection; C y Indicates the preset concentration threshold; T i T represents the time interval between the i-th pollutant concentration parameter collection and the previous pollutant concentration parameter collection; i-1 represents the time interval between the i-1th pollutant concentration parameter collection and the previous pollutant concentration parameter collection; f b represents the standard deviation of the collection frequency corresponding to the collection of n pollutant concentration parameters; f c represents the initial acquisition frequency; T cIndicates the data collection time interval corresponding to the initial collection frequency;

[0023] A comparison module, used for comparing the pollutant concentration evaluation coefficient with a preset evaluation coefficient threshold;

[0024] The prediction start module is used to start the activated carbon evaluation module when the pollutant concentration evaluation coefficient exceeds a preset evaluation coefficient threshold.

[0025] Preferably, the acquisition frequency dynamic acquisition module includes:

[0026] A second comparison module, used for comparing the pollutant concentration parameter extracted in real time with a preset concentration threshold;

[0027] A first acquisition frequency control module, used for maintaining the initial acquisition frequency to control the pollutant concentration sensor to collect pollutant concentration in real time when the pollutant concentration parameter does not exceed a preset concentration threshold;

[0028] A second acquisition frequency control module, used to adjust the data acquisition frequency of the pollutant concentration sensor using the pollutant concentration parameter when the pollutant concentration parameter exceeds a preset concentration threshold;

[0029] The collection operation control module is used to control the pollutant concentration sensor to collect pollutant concentration in real time according to the adjusted collection frequency;

[0030] The adjusted acquisition frequency is obtained by the following formula:

[0031]

[0032] Among them, f t Indicates the adjusted acquisition frequency; f c Indicates the initial acquisition frequency; C d represents the pollutant concentration parameter corresponding to when the pollutant concentration parameter exceeds the preset concentration threshold; k represents the number of pollutant concentration parameter collection times before the pollutant concentration parameter exceeds the preset concentration threshold; C j represents the pollutant concentration parameter value collected for the jth time before the pollutant concentration parameter exceeds the preset concentration threshold; C b represents the k-times standard deviation of the pollutant concentration parameter before the pollutant concentration parameter exceeds the preset concentration threshold; C y Indicates the preset concentration threshold.

[0033] A method for using an energy-saving gas processing device for carbon reduction optimization comprises the following steps:

[0034] Step 1: Graphene particles are put into the receiving bucket through the discharge end, and the receiving bucket is moved and placed on the upper end of the base;

[0035] Step 2: The second connecting ring is rotated inside the first connecting end, the external exhaust pipe is rotated and installed inside the first connecting ring, and the exhaust gas transmission pipe is rotated and embedded in one side of the outside of the base;

[0036] Step 3: The gas flows into the base and is discharged from the second connection end after being restricted by the transmission sheet. The gas passes through the graphene and then passes through the second connection ring and is discharged from the first connection ring.

[0037] Step 4: The output of the motor drives the transmission plate to rotate through the second transmission rod, and the rotation of the transmission plate can adjust the position and direction of the second connecting end;

[0038] Step 5. The rotation of the second transmission rod can drive the third gear to rotate. The rotation of the third gear can drive the first transmission rod to rotate through the transmission belt. The rotation of the first transmission rod can drive the first gear to rotate. The rotation of the first gear can drive the second gear to rotate. The rotation of the second gear drives the spiral rod to rotate. The rotation of the spiral rod can stir the graphene inside the storage barrel.

[0039] Compared with the prior art, the present invention has the following beneficial effects:

[0040] 1. The present invention limits the transmission of exhaust gas by a transmission plate before the gas is transmitted to the interior of the storage barrel, and reserves a position for exhaust inside the transmission plate. The gas is restricted by the transmission plate and can only be discharged from the second connection end of the exhaust. The second connection end deviates from the position of the center of the transmission plate, and during the gas transmission process, the transmission plate drives the second connection end to rotate, so that the position of the lower end of the storage barrel from which the gas enters the storage barrel can be continuously adjusted during the gas transmission process. By adjusting the gas transmission position, the gas can fully contact the graphene inside the storage barrel.

[0041] 2. The present invention provides a quarter-range tooth groove on the outside of the second transmission rod. The tooth groove rotates with the rotation of the second transmission rod. After the tooth groove contacts the third gear, the third gear rotates. When the third gear rotates, it drives the spiral rod to rotate through the transmission. In the process of the transmission plate rotating to adjust the gas discharge position, the spiral rod is rotated regularly and quantitatively to loosen and adjust the position and orientation of the graphene inside the receiving barrel, so that the graphene can fully contact the exhaust gas.

[0042] 3. When installing the storage bucket of the present invention, after the second connecting ring is rotated and twisted and embedded into the first connecting end, the gas passing through the graphene inside the storage bucket can pass through the first connecting end and be discharged, and the lower end of the storage bucket can be directly embedded in the connection groove position reserved inside the base through the protruding connecting strip to complete the placement of the storage bucket, so that the gas inside the base can smoothly flow into the storage bucket. The installation method is convenient, and during the disassembly process, after the second connecting ring is rotated and twisted and separated from the upper end of the storage bucket, the storage bucket can be directly picked up and the disassembly is completed. The installation and disassembly are efficient, and it is convenient to replace the graphene inside the storage bucket and to clean the inside of the storage bucket. BRIEF DESCRIPTION OF THE DRAWINGS

[0043] Figure 1 It is a stereoscopic diagram of the overall external structure of the present invention;

[0044] Figure 2 It is a cross-sectional view of the internal structure of the storage barrel of the present invention;

[0045] Figure 3 For the present invention Figure 2 A partial enlarged view of the middle A area;

[0046] Figure 4 For the present invention Figure 2 A partial enlarged view of the middle B area;

[0047] Figure 5 It is a schematic diagram of the steps of disassembling the storage bucket of the present invention;

[0048] Figure 6 It is a cross-sectional view of the internal structure of the discharge end of the present invention;

[0049] Figure 7 For the present invention Figure 6 A partial enlarged view of the middle C area;

[0050] Figure 8 It is a schematic diagram of the partition strip of the present invention;

[0051] Fig. 9 It is a schematic diagram of the transmission belt transmission structure of the present invention;

[0052] Fig.10 Schematic diagram of the energy-saving system of the present invention.

[0053] In the figure: 1. storage barrel; 2. base; 3. first transmission rod; 4. support rod; 5. first connecting ring; 6. second connecting ring; 7. first gear; 8. second gear; 9. spiral rod; 10. filter; 11. first connecting end; 12. heating wire; 13. transmission plate; 14. second connecting end; 15. barrier strip; 16. second transmission rod; 17. third gear; 18. transmission belt; 19. connecting strip; 20. connecting groove; 21. discharge end; 22. control panel. DETAILED DESCRIPTION

[0054] The present invention is further described below in conjunction with specific embodiments.

[0055] Example 1

[0056] like Figure 1 As shown, an energy-saving gas treatment device for carbon reduction optimization of this embodiment includes a receiving barrel 1, a filter screen 10 is provided at the lower end of the receiving barrel 1, and a graphene material for treating gas is placed inside the receiving barrel 1. The graphene is retained at the upper end of the filter screen 10 after being restricted by the filter screen 10. A discharge end 21 is provided on one side of the upper end of the outer side of the receiving barrel 1, and the graphene can be poured and discharged from the inside of the receiving barrel 1 through the discharge end 21. During the gas treatment process, a rubber plug is provided at the upper end of the outer side of the discharge end 21, and the discharge end 21 is blocked and restricted by the rubber plug to prevent the gas from being discharged from the discharge end 21.

[0057] like Figure 2 As shown, a first connection end 11 is provided on one side of the upper end of the outer side of the storage barrel 1. After the discharge end 21 is filled, the gas will be discharged from the first connection end 11;

[0058] In order to facilitate the assembly and gas transmission of the receiving barrel 1, as shown in FIG. Figure 1 , Figure 2 and Figure 8 As shown, a base 2 is provided at the lower end of the outside of the storage barrel 1, a connecting groove 20 is provided around the upper end of the base 2, a connecting groove 20 is provided in the middle of the upper end of the base 2, a connecting strip 19 is provided at the lower end of the storage barrel 1 toward the inside of the connecting groove 20, and the connecting strip 19 is welded and fixed to the lower end of the storage barrel 1, and the outer part of the connecting strip 19 is connected to the inner slot of the connecting groove 20. When the storage barrel 1 is assembled, the storage barrel 1 is longitudinally embedded in the connecting groove 20 through the connecting strip 19 to complete the assembly, and the gas transmitted to the inside of the base 2 will also directly pass through the filter 10 and flow into the inside of the storage barrel 1;

[0059] Among them, Figure 2 and Figure 4 As shown, a transmission plate 13 is provided at the upper end of the base 2, and the outer part of the transmission plate 13 is embedded in the base 2 and slidably connected with the inner part of the base 2. A second connecting end 14 is provided on one side of the center position of the transmission plate 13, and the second connecting end 14 is welded and fixed to the transmission plate 13. The internal through hole of the second connecting end 14 allows the gas transmitted to the inside of the base 2 to be discharged from the position of the second connecting end 14. The transmission plate 13 can rotate inside the base 2 to directly adjust the position and direction of the second connecting end 14. By adjusting the second connecting end 14, the different positions where the gas contacts the graphene inside the receiving barrel 1 can be directly adjusted, thereby improving the contact rate of the gas contacting the graphene.

[0060] In addition, a screw rod 9 is provided on the other side of the center of the receiving barrel 1, and the rotation of the screw rod 9 can stir the graphene inside the receiving barrel 1. A second gear 8 is provided on the upper end of the screw rod 9, and the second gear 8 is welded and fixed to the screw rod 9. A first gear 7 is provided on the other side of the outside of the second gear 8, and the outside of the first gear 7 is meshed and connected with the outside of the second gear 8. After the first gear 7 rotates, it drives the second gear 8 to rotate, and the rotation of the second gear 8 can cause the screw rod 9 to rotate;

[0061] In order to synchronize the rotation of the transmission sheet 13 and the screw rod 9, the graphene inside the storage barrel 1 is in full contact with the gas. Figure 2 , Figure 4 and Fig. 9 As shown, the center position of the lower end of the transmission plate 13 is rotatably connected to the inside of the base 2 through the second transmission rod 16, and the upper end of the second transmission rod 16 is welded and fixed to the lower end of the transmission plate 13. The second transmission rod 16 can be driven by the motor to drive the transmission plate 13 to rotate. After driving and adjusting the transmission plate 13, the position of the second connecting end 14 can be adjusted;

[0062] A third gear 17 is disposed on one side of the second transmission rod 16. Figure 4 and Fig. 9 As shown, a tooth groove is provided at a quarter of the outer portion of the second transmission rod 16, and the tooth groove of the outer wall of the second transmission rod 16 is meshedly connected with the outer wall of the third gear 17, and the first transmission rod 3 is provided at the lower end of the first gear 7, and the first transmission rod 3 is welded and fixed to the first gear 7, and the lower end of the outer portion of the third gear 17 is connected to the lower end of the outer portion of the first transmission rod 3 through a transmission belt 18. The transmission of the second transmission rod 16 by the motor can drive the screw rod 9 to rotate regularly after being driven by the third gear 17 and the transmission belt 18;

[0063] In order to heat the transmitted gas and to heat and reduce the graphene, Figure 2 As shown, a heating wire 12 is provided at one side of the inner center of the base 2. When the heating wire 12 is activated, it can generate heat, and the heat can heat the flowing gas. At the same time, the activation of the heating wire 12 can heat the graphene material inside the storage barrel 1.

[0064] Among them, a second connecting ring 6 is provided at the upper end of the outside of the first connecting end 11, a support rod 4 is provided on one side of the upper end of the base 2, and the lower end of the support rod 4 is welded and fixed to one side of the upper end of the base 2, a first connecting ring 5 is provided at the upper end of the support rod 4, and the first connecting ring 5 and the second connecting ring 6 are sealed and connected through a hose, the outside of the second connecting ring 6 cooperates with the internal thread of the first connecting end 11, and the second connecting ring 6 can be embedded in the first connecting end 11 after rotating, and when disassembling the storage barrel 1, the second connecting ring 6 can be rotated inside the first connecting end 11 to complete the disassembly, the outside of the first connecting ring 5 is welded and fixed to the upper end of the support rod 4, and the second connecting ring 6 can be suspended and fixed by using the support rod 4 as a support, and after being suspended and fixed, the gas inside the storage barrel 1 can pass through the first connecting end 11, the second connecting ring 6, the hose and the first connecting ring 5 in sequence and be discharged;

[0065] In addition, a pollutant concentration sensor is provided on the inner wall of the first connecting ring 5. After the gas is discharged from the first connecting ring 5, the pollutant concentration sensor will directly detect the discharged gas to evaluate the state of the graphene;

[0066] In order to facilitate the gas to fully contact the graphene, Figure 2 , Figure 5 and Figure 8 As shown, four barrier strips 15 are arranged around the upper end of the transmission sheet 13, and the four barrier strips 15 are welded and fixed to the inner wall of the base 2. The barrier strips 15 limit the gas discharged from the second connection end 14, so that the gas can flow into the storage barrel 1 at different positions, so that the gas can fully contact the graphene;

[0067] To further understand the content of the present invention, please refer to Fig.10 , this embodiment provides the following technical solutions:

[0068] The energy-saving gas treatment device for carbon reduction optimization also includes a control panel 22 at the front end of the base 2. The control panel 22 has an energy-saving system built in. The energy-saving system includes a control module, a power transmission module, a temperature control module, an exhaust gas detection module and an activated carbon evaluation module, wherein: the control module: is used to adjust the stirring speed and time and other parameters of the screw rod 9 according to the processing requirements, to achieve precise control of the stirring process of the screw rod 9, and to adjust the stirring strategy according to different gas components and flow rates by optimizing the adsorption process to achieve the best treatment effect; the power transmission module: is used to provide the power required by the stirring mechanism of the screw rod 9 to ensure the continuity and stability of the stirring action. While the motor drives the transmission plate 13 to rotate through the second transmission rod 16, the screw rod 9 can be driven to rotate through the transmission to ensure the consistency and reliability of the stirring effect and avoid stirring caused by insufficient power. Uneven mixing; Temperature control module: used to start the heating wire 12 as needed, start and increase the temperature of the gas and activated carbon, and adapt to the temperature of the equipment placement environment to prevent the activated carbon from being deactivated or safety risks caused by excessive temperature. After the graphene is independently heated by the heating wire 12, the adsorption performance of the activated carbon is maintained to ensure the safety of the treatment process; Waste gas detection module: used to monitor the ability of activated carbon to adsorb pollutants during the gas treatment process through the pollutant concentration sensor inside the first connecting ring 5, and can track the adsorption efficiency and saturation of activated carbon in real time to ensure the effective operation of the gas treatment device; Activated carbon evaluation module: used to predict the service life of activated carbon and the waste gas treatment efficiency through the activated carbon evaluation module. These data can help operators decide when to replace the activated carbon, optimize the gas treatment process, and ensure that emissions meet standards.

[0069] Specifically, the energy-saving system further includes:

[0070] A parameter extraction module, used for extracting pollutant concentration parameters obtained by the pollutant concentration sensor in real time;

[0071] A collection frequency dynamic acquisition module, used to adjust the pollutant concentration collection frequency in real time according to the pollutant concentration parameter;

[0072] The pollutant concentration evaluation coefficient acquisition module is used to obtain the pollutant concentration evaluation coefficient using the pollutant concentration parameter; wherein the pollutant concentration evaluation coefficient is obtained by the following formula:

[0073]

[0074] Where S represents the pollutant concentration evaluation coefficient; n represents the total number of pollutant concentration parameter collections; C i represents the concentration parameter value corresponding to the i-th pollutant concentration parameter collection; C i-1 represents the concentration parameter value corresponding to the i-1th pollutant concentration parameter collection; C yIndicates the preset concentration threshold; T i T represents the time interval between the i-th pollutant concentration parameter collection and the previous pollutant concentration parameter collection; i-1 represents the time interval between the i-1th pollutant concentration parameter collection and the previous pollutant concentration parameter collection; f b represents the standard deviation of the collection frequency corresponding to the collection of n pollutant concentration parameters; f c represents the initial acquisition frequency; T c Indicates the data collection time interval corresponding to the initial collection frequency;

[0075] A comparison module, used for comparing the pollutant concentration evaluation coefficient with a preset evaluation coefficient threshold;

[0076] The prediction start module is used to start the activated carbon evaluation module when the pollutant concentration evaluation coefficient exceeds a preset evaluation coefficient threshold.

[0077] The technical effect of the above technical solution is: the data obtained by the pollutant concentration sensor is extracted in real time through the parameter extraction module, ensuring the immediacy and accuracy of the data. The acquisition frequency dynamic acquisition module can adjust the acquisition frequency in real time according to the current pollutant concentration parameters. This means that when the pollutant concentration changes greatly or reaches a certain threshold, the system can collect data more frequently, thereby more accurately capturing the dynamic changes of pollutants. The pollutant concentration evaluation coefficient acquisition module uses the above formula to calculate the evaluation coefficient, which not only considers the absolute value of the pollutant concentration (Ci), but also considers the concentration change trend (the difference between Ci and Ci-1), the time interval of concentration collection (Ti and Ti-1), the stability of the acquisition frequency (fb) and the initial acquisition frequency (fc) and other factors. This comprehensive evaluation method can more comprehensively reflect the actual impact of pollutants and provide more accurate information for subsequent decision-making. The comparison module compares the calculated pollutant concentration evaluation coefficient with the preset evaluation coefficient threshold. When the evaluation coefficient exceeds the threshold, the system can trigger the early warning mechanism. The prediction start module starts the activated carbon evaluation module when the evaluation coefficient exceeds the standard (although the specific function of the activated carbon evaluation module is not detailed in the description, it can be inferred that it may be related to the treatment or purification of pollutants). This function helps to take measures in advance to prevent the concentration of pollutants from further increasing, thereby protecting the environment or the stability of the production process. Although the energy-saving effect is not directly mentioned in the description, the dynamic adjustment of the collection frequency and the prediction and early warning mechanism based on the evaluation coefficient can help reduce unnecessary monitoring and data collection, thereby saving energy and costs to a certain extent. In addition, by timely warning and starting the corresponding processing module, the system can manage pollutants more effectively and reduce energy waste or additional processing costs caused by pollutants exceeding the standard.

[0078] In summary, this technical solution achieves effective management and control of pollutant concentrations through real-time monitoring, dynamic adjustment, refined evaluation and early warning mechanisms, while also embodying the concepts of energy conservation and environmental protection to a certain extent.

[0079] Specifically, the acquisition frequency dynamic acquisition module includes:

[0080] A second comparison module, used for comparing the pollutant concentration parameter extracted in real time with a preset concentration threshold;

[0081] A first acquisition frequency control module, used for maintaining the initial acquisition frequency to control the pollutant concentration sensor to collect pollutant concentration in real time when the pollutant concentration parameter does not exceed a preset concentration threshold;

[0082] A second acquisition frequency control module, used to adjust the data acquisition frequency of the pollutant concentration sensor using the pollutant concentration parameter when the pollutant concentration parameter exceeds a preset concentration threshold;

[0083] The collection operation control module is used to control the pollutant concentration sensor to collect pollutant concentration in real time according to the adjusted collection frequency;

[0084] The adjusted acquisition frequency is obtained by the following formula:

[0085]

[0086] Among them, f t Indicates the adjusted acquisition frequency; f c Indicates the initial acquisition frequency; C d represents the pollutant concentration parameter corresponding to when the pollutant concentration parameter exceeds the preset concentration threshold; k represents the number of pollutant concentration parameter collection times before the pollutant concentration parameter exceeds the preset concentration threshold; C j represents the pollutant concentration parameter value collected for the jth time before the pollutant concentration parameter exceeds the preset concentration threshold; C b represents the k-times standard deviation of the pollutant concentration parameter before the pollutant concentration parameter exceeds the preset concentration threshold; C y Indicates the preset concentration threshold.

[0087] The technical effect of the above technical solution is: by comparing the pollutant concentration parameter with the preset concentration threshold in real time through the second comparison module, the system can intelligently judge the state of the current pollutant concentration. When the pollutant concentration is within the safe range (i.e., not exceeding the preset threshold), the system maintains the initial collection frequency, which helps to reduce unnecessary frequent collection when the pollutant concentration is stable and save resources. When the pollutant concentration exceeds the preset threshold, the system automatically adjusts the collection frequency through the second collection frequency control module to more closely monitor the changes in pollutant concentration.

[0088] The adjusted acquisition frequency is calculated by the above formula, which takes into account multiple factors, including the initial acquisition frequency (fc), the pollutant concentration parameter when exceeding the threshold (Cd), the number of pollutant concentration parameter acquisitions before exceeding the threshold (k), the values ​​of pollutant concentrations in these acquisition times (Cj), and the standard deviation of these values ​​(Cb). This refined adjustment strategy makes the adjustment of the acquisition frequency more scientific and reasonable, and can better adapt to the changes in different pollutant concentrations. By dynamically adjusting the acquisition frequency, the system can collect data more frequently when the pollutant concentration changes greatly, so as to more accurately capture the dynamic changes of pollutants. This helps to improve the efficiency and accuracy of monitoring and provide stronger support for subsequent pollutant treatment or decision-making. Maintaining a low acquisition frequency when the pollutant concentration is stable helps to reduce the energy consumption and wear of the sensor and extend its service life. At the same time, through more refined monitoring and management, the system can more effectively control the emission and treatment of pollutants, thereby promoting environmental protection and sustainable development to a certain extent.

[0089] In summary, this technical solution realizes the intelligent management of pollutant concentration sensors by adaptively adjusting the acquisition frequency, fine-tuning the strategy, and improving monitoring efficiency and accuracy. This not only helps to improve the accuracy and efficiency of monitoring, but also helps to save energy and protect the environment.

[0090] A method for using an energy-saving gas processing device for carbon reduction optimization comprises the following steps:

[0091] Step 1: Graphene particles are put into the receiving bucket 1 through the discharge end 21, the discharge end 21 is filled, and the receiving bucket 1 is moved and placed on the upper end of the base 2, so that the connecting strip 19 at the lower end of the receiving bucket 1 is embedded in the connecting groove 20 at the upper end of the base 2;

[0092] Step 2: Rotate the second connecting ring 6 so that the second connecting ring 6 rotates inside the first connecting end 11, so that the first connecting end 11 and the second connecting ring 6 are sealed, the external exhaust pipe is rotated and installed inside the first connecting ring 5, and the exhaust gas transmission pipe is rotated and embedded in one side of the outside of the base 2;

[0093] Step 3: The gas flows into the base 2 and is discharged from the second connection end 14 after being restricted by the transmission sheet 13. The gas discharged from the second connection end 14 passes through the filter 10 and contacts the graphene inside the storage barrel 1. After passing through the graphene, the gas passes through the second connection ring 6 and is discharged from the first connection ring 5.

[0094] Step 4: Start the motor at the lower end of the second transmission rod 16. The output of the motor drives the transmission plate 13 to rotate through the second transmission rod 16. The rotation of the transmission plate 13 can adjust the position and direction of the second connection end 14. The gas discharged from the second connection end 14 will be restricted by the barrier strip 15 and then flow into the storage barrel 1.

[0095] Step 5. The rotation of the second transmission rod 16 can drive the third gear 17 to rotate. The rotation of the third gear 17 can drive the first transmission rod 3 to rotate through the transmission belt 18. The rotation of the first transmission rod 3 can drive the first gear 7 to rotate. The rotation of the first gear 7 can drive the second gear 8 to rotate. The rotation of the second gear 8 drives the screw rod 9 to rotate. The rotation of the screw rod 9 can stir the graphene inside the receiving barrel 1.

[0096] Working principle: first, place the base 2 at the equipment placement position, the exhaust gas transmission pipeline is sealed and connected to one side of the outside of the base 2, and the graphene is poured into the receiving barrel 1 through the discharge end 21. The receiving barrel 1 is inserted into the connecting groove 20 through the connecting strip 19 at the lower end to complete the assembly of the receiving barrel 1. The gas inside the base 2 will flow into the receiving barrel 1 and contact the graphene inside the receiving barrel 1. The second connecting ring 6 is rotated and inserted into the position of the first connecting end 11 on one side of the upper end of the receiving barrel 1. The exhaust gas discharged from the receiving barrel 1 passes through the first connecting end 11 and is discharged from the position of the first connecting ring 5. When taking out the receiving barrel 1, the second connecting ring 6 is rotated and separated. At the upper end of the receiving barrel 1, the receiving barrel 1 can be taken out by pulling the receiving barrel 1, and the graphene inside the receiving barrel 1 can be replaced. After the gas flows into the base 2, the motor can drive the transmission plate 13 and the second connecting end 14 to rotate through the second transmission rod 16. The rotation of the second transmission rod 16 can drive the third gear 17 to rotate. The rotation of the third gear 17 can drive the first transmission rod 3 to rotate through the transmission belt 18. The rotation of the first transmission rod 3 can drive the first gear 7. The rotation of the first gear 7 can drive the second gear 8 to rotate. The rotation of the second gear 8 can drive the screw rod 9, so that the rotation of the screw rod 9 stirs the graphene inside the receiving barrel 1.

[0097] It should be noted that, in this article, relational terms such as first and second, etc. are only used to distinguish one entity or operation from another entity or operation, and do not necessarily require or imply any such actual relationship or order between these entities or operations. Moreover, the terms "include", "comprise" or any other variants thereof are intended to cover non-exclusive inclusion, so that a process, method, article or device including a series of elements includes not only those elements, but also other elements not explicitly listed, or also includes elements inherent to such process, method, article or device.

[0098] While the embodiments of the present invention have been shown and described, it will be appreciated by those skilled in the art that many changes, modifications, substitutions and variations can be made to the embodiments without departing from the principles and spirit of the invention.

Claims

1. An energy-saving gas treatment device for carbon reduction optimization, comprising a receiving barrel (1), wherein a first connection end (11) is provided on one side of the upper end of the outer portion of the receiving barrel (1), characterized in that: A base (2) is provided at the lower end of the outside of the storage bucket (1), a connecting groove (20) is provided in the middle of the upper end of the base (2) and around the upper end of the base (2), a connecting strip (19) is welded at the lower end of the storage bucket (1) toward the inside of the connecting groove (20) and connected to the connecting groove (20) slot, a transmission sheet (13) is provided at the upper end of the inside of the base (2) and is embedded in the inside of the base (2) and slidably connected to the inside of the base (2), and a second connection end (14) is welded on one side of the center position of the transmission sheet (13).

2. The energy-saving gas treatment device for carbon reduction optimization according to claim 1 is characterized in that: A spiral rod (9) is arranged on the other side of the center of the receiving barrel (1), a second gear (8) is welded to the upper end of the spiral rod (9), and a first gear (7) is arranged on the other side of the outside of the second gear (8) and meshed with each other.

3. The energy-saving gas treatment device for carbon reduction optimization according to claim 2 is characterized in that: A second transmission rod (16) is welded to the lower end of the transmission plate (13) and is rotatably connected to the inside of the base (2); a third gear (17) is arranged on one side of the outside of the second transmission rod (16); a tooth groove meshing with the outside of the third gear (17) is arranged in a quarter of the outside of the second transmission rod (16); a first transmission rod (3) is welded to the lower end of the first gear (7); and the lower end of the outside of the third gear (17) is connected to the lower end of the outside of the first transmission rod (3) via a transmission belt (18).

4. The energy-saving gas treatment device for carbon reduction optimization according to claim 1 is characterized in that: A support rod (4) is welded to one side of the upper end of the base (2), a first connecting ring (5) is welded to the upper end of the support rod (4), a second connecting ring (6) is provided at the lower end of the first connecting ring (5) and is sealed and connected via a hose, and the outer portion of the second connecting ring (6) is threadedly matched with the inner portion of the first connecting end (11).

5. The energy-saving gas treatment device for carbon reduction optimization according to claim 1 is characterized in that: A heating wire (12) is arranged on one side of the inner center of the base (2).

6. The energy-saving gas processing device for carbon reduction optimization according to claim 4 is characterized in that: A pollutant concentration sensor is provided on the inner wall of the first connecting ring (5).

7. The energy-saving gas processing device for carbon reduction optimization according to claim 1 is characterized in that: It also includes a control screen (22) at the front end of the base (2), wherein the control screen (22) has an energy-saving system built in, and the energy-saving system includes: A control module is used to adjust the stirring speed and time parameters of the screw rod (9) according to processing requirements; Power transmission module: used to provide the power required by the stirring mechanism of the screw rod (9); Temperature control module: used to start the electric heating wire (12) as needed, start and increase the temperature of the gas and activated carbon, and adapt to the temperature of the environment where the equipment is placed; An exhaust gas detection module is used to monitor the ability of the activated carbon to adsorb pollutants during the gas treatment process through a pollutant concentration sensor inside the first connecting ring (5); Activated Carbon Evaluation Module: Used to predict the service life and exhaust gas treatment efficiency of activated carbon through the activated carbon evaluation module.

8. The energy-saving gas processing device for carbon reduction optimization according to claim 7 is characterized in that: The energy-saving system further comprises: A parameter extraction module, used for extracting pollutant concentration parameters obtained by the pollutant concentration sensor in real time; A collection frequency dynamic acquisition module, used to adjust the pollutant concentration collection frequency in real time according to the pollutant concentration parameter; The pollutant concentration evaluation coefficient acquisition module is used to obtain the pollutant concentration evaluation coefficient using the pollutant concentration parameter; wherein the pollutant concentration evaluation coefficient is obtained by the following formula: Where S represents the pollutant concentration evaluation coefficient; n represents the total number of pollutant concentration parameter collections; C i represents the concentration parameter value corresponding to the i-th pollutant concentration parameter collection; C i-1 represents the concentration parameter value corresponding to the i-1th pollutant concentration parameter collection; C y Indicates the preset concentration threshold; T i T represents the time interval between the i-th pollutant concentration parameter collection and the previous pollutant concentration parameter collection; i-1 represents the time interval between the i-1th pollutant concentration parameter collection and the previous pollutant concentration parameter collection; f b represents the standard deviation of the collection frequency corresponding to the collection of n pollutant concentration parameters; f c represents the initial acquisition frequency; T c Indicates the data collection time interval corresponding to the initial collection frequency; A comparison module, used for comparing the pollutant concentration evaluation coefficient with a preset evaluation coefficient threshold; The prediction start module is used to start the activated carbon evaluation module when the pollutant concentration evaluation coefficient exceeds a preset evaluation coefficient threshold.

9. The energy-saving gas processing device for carbon reduction optimization according to claim 8, characterized in that: The acquisition frequency dynamic acquisition module includes: A second comparison module, used for comparing the pollutant concentration parameter extracted in real time with a preset concentration threshold; A first acquisition frequency control module, used for maintaining the initial acquisition frequency to control the pollutant concentration sensor to collect pollutant concentration in real time when the pollutant concentration parameter does not exceed a preset concentration threshold; A second acquisition frequency control module, used to adjust the data acquisition frequency of the pollutant concentration sensor using the pollutant concentration parameter when the pollutant concentration parameter exceeds a preset concentration threshold; The collection operation control module is used to control the pollutant concentration sensor to collect pollutant concentration in real time according to the adjusted collection frequency; The adjusted acquisition frequency is obtained by the following formula: Among them, f t Indicates the adjusted acquisition frequency; f c Indicates the initial acquisition frequency; C d represents the pollutant concentration parameter corresponding to when the pollutant concentration parameter exceeds the preset concentration threshold; k represents the number of pollutant concentration parameter collection times before the pollutant concentration parameter exceeds the preset concentration threshold; C j represents the pollutant concentration parameter value collected for the jth time before the pollutant concentration parameter exceeds the preset concentration threshold; C b represents the k-times standard deviation of the pollutant concentration parameter before the pollutant concentration parameter exceeds the preset concentration threshold; C y Indicates the preset concentration threshold.

10. A method for using the energy-saving gas processing device for carbon reduction optimization according to any one of claims 1 to 9, characterized in that: The steps include: Step 1: Graphene particles are put into the receiving bucket (1) through the discharge end (21), and the receiving bucket (1) is moved and placed on the upper end of the base (2); Step 2: The second connecting ring (6) is rotated inside the first connecting end (11), the external exhaust pipe is rotated and installed inside the first connecting ring (5), and the exhaust gas transmission pipe is rotated and embedded in one side of the outside of the base (2); Step 3: The gas flows into the base (2) and is restricted by the transmission plate (13) before being discharged from the second connection end (14). The gas passes through the graphene and then passes through the second connection ring (6) and is discharged from the first connection ring (5). Step 4: The output of the motor drives the transmission plate (13) to rotate via the second transmission rod (16), and the rotation of the transmission plate (13) adjusts the position and orientation of the second connection end (14); Step 5: The rotation of the second transmission rod (16) drives the third gear (17) to rotate. The rotation of the third gear (17) drives the first transmission rod (3) to rotate through the transmission belt (18). The rotation of the first transmission rod (3) drives the first gear (7) to rotate. The rotation of the first gear (7) drives the second gear (8) to rotate. The rotation of the second gear (8) drives the spiral rod (9) to rotate. The rotation of the spiral rod (9) stirs the graphene inside the receiving barrel (1).

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