Carbon emission accounting method in electronic equipment recovery process
By dividing the electronic equipment recycling process into four recycling stages and establishing a dual carbon recycling platform, the problem of blurred carbon emission accounting boundaries in electronic equipment recycling is solved, the authenticity and accuracy of data is improved, and real-time monitoring and management of carbon emissions is realized.
Patent Information
- Application Number
- CN202510166020.4
- Authority / Receiving Office
- CN · China
- Patent Type
- Applications(China)
- Current Assignee / Owner
- Filing Date
- 2025-02-14
- Publication Date
- 2025-06-06
AI Technical Summary
The existing carbon emission accounting system standards for electronic equipment recycling are not unified, and the emission information in the intermediate links cannot be fully considered, resulting in the lack of authenticity and accuracy of the data in carbon emission reports.
By dividing the recycling process of electronic equipment into four recycling stages (raw material acquisition, transportation, product dismantling and reprocessing, and sales), the carbon emission values of each stage are obtained and counted, and the total carbon emission values and average processing of single-piece electronic equipment are calculated. Establish a dual carbon recycling platform, including carbon emission accounting module, carbon-related database, data visualization module and early warning module, monitor and display carbon emission data in real time, and send early warning signals.
The boundaries of carbon emission accounting have been clarified, the authenticity and accuracy of carbon emission reports during the recycling process have been improved, and real-time monitoring and management of carbon emissions during the recycling process of electronic equipment have been realized.
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Figure CN120106360A_ABST
Abstract
Description
Technical Field
[0001] The present application relates to the field of electronic equipment recycling, and in particular to a carbon emission accounting method for an electronic equipment recycling process. Background Art
[0002] Energy conservation and environmental protection are the responsibilities and missions of enterprises. At present, all countries are advocating low-carbon and carbon reduction. Many developed countries that attach importance to environmental protection have passed legislation to exclude high-energy-consuming and high-pollution products or business models from the market. Therefore, lower carbon emissions in the production process not only reflect the social value of enterprises, but will also be a core competitiveness of future corporate products.
[0003] At present, the MRV system is widely used in the field of carbon emission accounting. The MRV system includes three stages: monitoring, reporting, and verification. A scientific and complete MRV system is a basic element for the construction and operation of the carbon trading mechanism, and is also an important basis for corporate low-carbon transformation and regional low-carbon macro-decision-making.
[0004] However, the existing carbon emission accounting system for electronic equipment recycling has inconsistent standards and fails to fully consider emission information in the intermediate links, which blurs the boundaries of carbon emission accounting and ultimately leads to a lack of authenticity and accuracy in the data reported on carbon emissions during the recycling process. Currently, no effective solution has been proposed to the problem of blurred boundaries in carbon emission accounting for electronic equipment recycling. Summary of the invention
[0005] The present invention provides a carbon emission accounting method for an electronic equipment recycling process to solve the problem of fuzzy accounting boundaries for carbon emission from electronic equipment recycling.
[0006] In a first aspect, the present invention provides a method for calculating carbon emissions during the recycling process of electronic equipment, comprising:
[0007] Obtain the values of various carbon emissions in the four recycling stages of electronic equipment; the four recycling stages are respectively the raw material acquisition stage, the transportation stage, the product disassembly and reprocessing stage, and the sales stage; the various carbon emissions in the raw material acquisition stage include: carbon emissions generated by the behavior of personnel in the recycling industry chain, and carbon emissions generated by machine sorting of recyclables; the various carbon emissions generated in the transportation stage include: carbon emissions generated by transportation tools; the various carbon emissions generated in the product disassembly and reprocessing stage include: carbon emissions generated by the purchase and use of electric energy by enterprises, carbon emissions generated by the independent production of electric energy by enterprises, carbon emissions generated by the use of water resources by enterprises, carbon emissions generated by the consumption of fossil energy by disassembling equipment, carbon emissions emitted when disassembling equipment consumes fossil energy, and unorganized carbon emissions from disassembling production lines; carbon emissions generated in the sales stage include: carbon emissions generated by employee commuting, and carbon emissions generated by product use and after-sales service;
[0008] Count the values of carbon emissions in the four recycling stages and calculate the total carbon emissions generated during the recycling of electronic equipment and the average carbon emissions generated by processing a single piece of electronic equipment;
[0009] The values of carbon emissions in the four recycling stages are counted and the total carbon emissions generated during the recycling of electronic equipment and the average carbon emissions generated by processing a single piece of electronic equipment are calculated.
[0010] In some of the embodiments, the carbon emissions generated in the raw material acquisition stage are calculated as follows:
[0011]
[0012]
[0013] Among them, E 回收 AD is the carbon emissions generated in the raw material acquisition stage. 回收i is the energy consumed by the i-th machine to sort recyclables, EF 回收i is the carbon emission factor corresponding to the energy consumption of the i-th machine sorting recyclables. The carbon emission generated by the machine sorting recyclables is E 人工 To recycle the carbon emissions generated by the behavior of people in the industrial chain.
[0014] In some of the embodiments, the transportation means include vehicles, ships and airplanes, and the carbon emissions generated in the transportation stage are calculated as follows:
[0015] E 运输 =E 陆运 +E 海运 +E 空运
[0016]
[0017]
[0018]
[0019] Among them, E 运输 represents the carbon emissions generated during the transportation phase, E 陆运 Represents the carbon emissions generated by vehicles, including fuel vehicles and electric vehicles, E 海运 represents the carbon emissions generated by the ship, E 空运 Indicates the carbon emissions generated by aircraft, AD j represents the mass of the jth fossil energy consumed by the fuel vehicle, EF 化石能源-j represents the carbon emission factor corresponding to the jth fossil energy consumed by the fuel vehicle. The carbon emission generated by the fuel vehicle is AD 电力i is the electric energy consumed by the tram passing through the i-th transportation area, EF 电力i is the carbon emission factor of electric energy production corresponding to the i-th transportation area, and the carbon emission generated by the tram is AD m is the mass of the mth fossil energy consumed by the ship, EF 化石能源-m is the carbon emission factor corresponding to the mth fossil energy consumed by the ship, and the carbon emission generated by the ship is AD t is the mass of the tth fossil energy consumed by the aircraft, EF 化石能源-t is the carbon emission factor corresponding to the tth fossil energy consumed by the aircraft, and the carbon emissions generated by the aircraft are
[0020]
[0021] In some of the embodiments, the calculation formula for carbon emissions generated during the product disassembly and reprocessing stage is as follows:
[0022] E 拆解回收 =E 处理过程 +E 电耗 +E 水耗 +E 逸散 +E 其他A -E ccer -E ccus
[0023]
[0024]
[0025] E 水耗 =AD 水 ×EF 水 +AD 再生水 ×EF 再生水
[0026]
[0027] Among them, E 拆解回收 E is the carbon emissions generated during the product disassembly and reprocessing stage. 其他A To dismantle the unorganized carbon emissions in the production line, E 处理过程 To dismantle the carbon emissions generated by fossil energy consumption of equipment, AD a,b represents the mass of the ath fossil energy consumed by the bth dismantling equipment, EF a,b It represents the carbon emission factor corresponding to the consumption of the ath fossil energy by the bth dismantling equipment. The carbon emission generated by the consumption of fossil energy by the dismantling equipment is Eccer refers to the amount of certification that an enterprise purchases from a company that implements "carbon offset" to offset its own carbon emissions. Eccus refers to the amount of carbon capture, utilization and storage adopted by the enterprise. 电耗 The carbon emissions generated by the consumption of electricity during the product disassembly and reprocessing stage include the carbon emissions generated by the purchase and use of electricity by the enterprise and the carbon emissions generated by the enterprise's own production of electricity. 购买电力 AD is the carbon emission factor of the electricity purchased and used by the enterprise. 购买电力 The amount of electricity purchased and used by the enterprise. The carbon emissions generated by the purchase and use of electricity by the enterprise are AD 购买电力 ×EF 购买电力 , A.D. 自发j is the amount of electric energy produced independently by the enterprise in the jth production mode, EF 自发j is the carbon emission factor corresponding to the j-th production mode of self-produced electric energy. The carbon emission generated by the enterprise's self-produced electric energy is E 水耗 The carbon emissions generated by the use of water resources in the product disassembly and reprocessing stage include carbon emissions generated by external water resources and carbon emissions generated by recycling wastewater. 水 The quality of external water resources for enterprises, EF 水 is the carbon emission factor of the external water resources of the enterprise, AD 再生水 The quality of wastewater recycled by enterprises, EF 再生水 is the carbon emission factor of wastewater recycling by the enterprise. The carbon emission generated by wastewater recycling by the enterprise is AD 再生水 ×EF 再生水 , E 逸散 To dismantle the carbon emissions emitted when the equipment consumes fossil energy, AD a*b* is the mass of the fugitives generated when the b*th dismantling equipment consumes the a*th fossil energy, EFa*b* is the carbon emission factor corresponding to the fugitives generated when the b*th dismantling equipment consumes the a*th fossil energy, and the carbon emission emitted when the dismantling equipment consumes fossil energy is
[0028] In some of the embodiments, the carbon emissions generated during the sales phase are calculated as follows:
[0029] E 销售 =E 其他B +E 通勤
[0030] E 通勤 =AD 通勤 ×EF 通勤
[0031] Among them, E 销售 is the carbon emissions generated during the sales phase, E 通勤 Carbon emissions generated by employees’ commuting during the sales process, E 其他B AD is the carbon emissions generated by product use and after-sales service during the sales process. 通勤 is the total commuting volume of employees, EF 通勤 is the carbon emission factor corresponding to employee commuting. The carbon emission generated by employee commuting during the sales process is AD 通勤 ×EF 通勤 .
[0032] In some embodiments, the total carbon emissions generated during the recycling of electronic devices and the average carbon emissions generated by processing a single piece of electronic equipment are calculated as follows:
[0033] E 总 =E 回收 +E 运输 +E 拆解回收 +E 销售
[0034] E p =(E 回收 +E 运输 +E 拆解回收 +E 销售 )
[0035] Among them, E 总 is the total carbon emissions generated during the recycling of electronic equipment, P is the total number of electronic equipment processed during the recycling of electronic equipment, and E p The average carbon emissions generated by processing a single piece of electronic equipment during the recycling process.
[0036] In some embodiments, the carbon emissions in each recycling stage are obtained by:
[0037] Install collection equipment to read, read from public databases, and investigate work logs and field research readings, etc.
[0038] In a second aspect, the present invention provides a dual-carbon recycling platform for electronic devices, comprising:
[0039] The carbon emission accounting module is used to execute the carbon emission accounting method described in the first aspect to obtain the values of each carbon emission in the four recycling stages of the electronic equipment, the value of the total carbon emission during the recycling process, and the value of the average carbon emission generated by processing a single piece of electronic equipment.
[0040] In some of the embodiments, recovering the dual carbon platform further comprises:
[0041] A carbon-related database, including a carbon emission factor library and a database of industry specifications for each stage. The carbon-related database is used to store the values of carbon emissions in the four recycling stages of electronic equipment calculated by the carbon emission accounting module, the total carbon emissions during the recycling process, and the average carbon emissions generated by processing a single piece of electronic equipment;
[0042] The data visualization module is used to display the values of each carbon emission in the four recycling stages of electronic equipment, the total carbon emission value in the recycling process, and the average carbon emission value generated by processing a single piece of electronic equipment.
[0043] In some of the embodiments, recovering the dual carbon platform further comprises:
[0044] The early warning module is used to compare the values of various carbon emissions in the four recycling stages of electronic equipment with the ranges specified in the industry standard database for each stage. If the values of various carbon emissions in a certain recycling stage exceed the ranges specified in the industry standard database for each stage, an early warning signal is sent.
[0045] Compared with the related art, the present invention has the following beneficial effects:
[0046] 1. The present invention divides the recycling process of electronic equipment into four recycling stages, analyzes the carbon emissions that may be generated in each recycling stage, and then clusters them, thereby clarifying the carbon emission measurement target in the recycling process of electronic equipment, and specifically dividing the boundaries of carbon emission accounting, solving the problem of blurred accounting boundaries of carbon emissions from electronic equipment recycling, and improving the authenticity and accuracy of data in carbon emission reports during the recycling process.
[0047] 2. The present invention establishes a dual-carbon recycling platform for electronic equipment, and the platform executes the carbon emission accounting method to obtain the values of various carbon emissions in the four recycling stages of the electronic equipment and the total carbon emissions in the recycling process, and uploads these values to the carbon-related database for update, and then displays the values by the data visualization module to facilitate observation by the staff. The platform is also equipped with an early warning module, which can compare these values with the ranges specified in the industry specification database for each stage. If the values of various carbon emissions in a certain recycling stage exceed the ranges specified in the industry specification database for each stage, an early warning signal is sent, so that the platform can prompt enterprise managers based on the abnormal fluctuation data of real-time monitoring of carbon emissions, thereby completing real-time viewing of the current working status of each work unit at the management end, solving the problem of difficulty in real-time monitoring of various carbon emissions during the recycling of electronic equipment, and ensuring the smooth recycling of electronic equipment.
[0048] Details of one or more embodiments of the present application are set forth in the following drawings and description to make other features, objects, and advantages of the present application more readily apparent. BRIEF DESCRIPTION OF THE DRAWINGS
[0049] Figure 1 A flowchart of the steps of the method for calculating carbon emissions during the recycling process;
[0050] Figure 2 The numerical acquisition and processing flow chart of carbon emissions;
[0051] Figure 3 To recycle the working principle diagram of the dual carbon platform;
[0052] Figure 4 Detailed workflow diagram for recycling carbon emissions accounting method for mobile phones or tablets. DETAILED DESCRIPTION
[0053] In order to more clearly understand the purpose, technical solutions and advantages of the present application, the present application is described and illustrated below in conjunction with the accompanying drawings and embodiments.
[0054] Reference Figure 1 As shown, in this embodiment, a method for calculating carbon emissions in an electronic equipment recycling process is provided, and the method comprises steps S110 and S120.
[0055] Step S110, obtaining the values of various carbon emissions in four recycling stages of the electronic device. In this embodiment, the electronic device is a mobile phone or a tablet computer.
[0056] Reference Figure 2 As shown, in this embodiment, the methods for obtaining various carbon emissions in each recycling stage include installing collection equipment to read, reading from a public database, investigating work logs and reports, and reading through field surveys.
[0057] For example, when collecting energy consumption data during the production and processing of an enterprise, the difficulty of data collection during the production and processing of the enterprise is divided into simple stable working conditions, sub-stable working conditions, and mixed working conditions. Among them, the simple stable working condition is a production unit with a relatively single energy use and a stable single process duration. The energy consumption fluctuations in the process of processing a single identical component are stable, and direct carbon emission data can be obtained by installing relevant simple monitoring devices (such as robot handling and stacking processes); the sub-stable working condition is a production unit with a clear type of energy use and a relatively stable single process duration. There are small fluctuations in the energy consumption in the process of processing a single identical component. Direct carbon emission data can be obtained by installing a dynamic energy consumption collection device and field sampling detection (such as manual disassembly or welding of the same component); the mixed working condition is a production unit with a relatively unstable single process duration. The energy consumption for processing a single identical component varies greatly. The data is obtained by installing precise energy consumption collection devices, work logs, reports and multiple field surveys. For data that are difficult to monitor directly, they are estimated through thermodynamic or kinetic related equations (empirical formulas), and the energy consumption curve of the production and processing parts is fitted according to the real-time energy consumption collection through mathematical induction to obtain indirect carbon emission data. The corresponding relevant carbon emission factors are queried through policies and industry specifications, and these data are integrated and updated to the carbon-related database.
[0058] The four recycling stages are raw material acquisition stage, transportation stage, product disassembly and reprocessing stage, and sales stage. In this embodiment, the four recycling stages are divided by analyzing the life cycle assessment framework of the electronic device to determine the boundaries and then divide them.
[0059] The various carbon emissions in the raw material acquisition stage include: carbon emissions generated by the behavior of people in the recycling industry chain, and carbon emissions generated by machines sorting recyclables.
[0060] The relevant data that need to be analyzed and counted during the raw material acquisition stage include: location information of material acquisition points for various types of mobile phones or tablets, average daily recycling volume, types of recycled brands, damage rates of various types of mobile phones or tablets, and the content of various metals in various types of mobile phones or tablets.
[0061] Furthermore, in order to make the calculation method of carbon emissions generated in the raw material acquisition stage more refined, in this embodiment, the calculation formula of carbon emissions generated in the raw material acquisition stage is summarized as follows:
[0062]
[0063] Among them, E 回收 AD is the carbon emissions generated in the raw material acquisition stage. 回收i is the energy consumed by the i-th machine to sort recyclables, EF回收i is the carbon emission factor corresponding to the energy consumption of the i-th machine sorting recyclables. The carbon emission generated by the machine sorting recyclables is E 人工 To recycle the carbon emissions generated by the behavior of people in the industrial chain.
[0064] The various carbon emissions generated during the transportation stage include: carbon emissions generated by transportation vehicles.
[0065] For example, the relevant data that need to be analyzed and counted in the transportation stage include: the average recycling distance of a single recycling item, the type of energy used by relevant transportation tools and their energy consumption, etc.
[0066] Furthermore, in order to make the calculation method of carbon emissions generated in the transportation stage more refined, in this embodiment, the means of transportation include vehicles, ships and airplanes, and the calculation formula of carbon emissions generated in the transportation stage is summarized as follows:
[0067] E 运输 =E 陆运 +E 海运 +E 空运
[0068]
[0069]
[0070]
[0071]
[0072] Among them, EF 化石能源 is the carbon emission factor for using fossil energy, CC 化石能源 is the carbon content of the fossil energy used, OF 化石能源 is the carbon oxidation rate of the fossil energy used, where the default value for liquid carbon oxidation rate is 0.98, the default value for gas fuel carbon oxidation rate is 0.99, and the value for solid fuel is based on the actual combustion situation, E 运输 represents the carbon emissions generated during the transportation phase, E 陆运 Represents the carbon emissions generated by vehicles, including fuel vehicles and electric vehicles, E 海运 represents the carbon emissions generated by the ship, E 空运 Indicates the carbon emissions generated by aircraft, AD j represents the mass of the jth fossil energy consumed by the fuel vehicle, EF 化石能源-j represents the carbon emission factor corresponding to the jth fossil energy consumed by the fuel vehicle. The carbon emission generated by the fuel vehicle is AD 电力i is the electric energy consumed by the tram passing through the i-th transportation area, EF 电力iis the carbon emission factor of electricity production in the ith transportation area, and the carbon emission generated by the tram is AD m is the mass of the mth fossil energy consumed by the ship, EF 化石能源-m is the carbon emission factor corresponding to the mth fossil energy consumed by the ship, and the carbon emission generated by the ship is AD t is the mass of the tth fossil energy consumed by the aircraft, EF 化石能源-t is the carbon emission factor corresponding to the tth fossil energy consumed by the aircraft, and the carbon emissions generated by the aircraft are
[0074] The various carbon emissions generated during the product disassembly and reprocessing stage include: carbon emissions generated by the company's purchase and use of electric energy, carbon emissions generated by the company's independent production of electric energy, carbon emissions generated by the company's use of water resources, carbon emissions generated by the consumption of fossil energy by disassembly equipment, carbon emissions dissipated when disassembly equipment consumes fossil energy, and unorganized carbon emissions from disassembly production lines.
[0075] Exemplarily, the relevant data that need to be analyzed and counted in the product disassembly and reprocessing stage include: the disassembly depth of a single recycled part, disassembly efficiency, the types and consumption of energy used in disassembling each ton of mobile phones or tablets, the average daily disassembly volume, the proportion of destructive recycled products, the series of processes from discharge to crushing to sorting to purification to cooling when destructively recycling each ton of mobile phones or tablets, as well as the average environmental benefits of non-destructive disassembly and recycling per ton during the fugitive gas treatment and chemical treatment process, the average environmental benefits of destructive disassembly and recycling per ton, the treatment methods and average daily treatment volume of residual waste, etc.
[0076] Furthermore, in order to make the calculation method of carbon emissions generated in the product disassembly and reprocessing stage more refined, the calculation formula of carbon emissions generated in the product disassembly and reprocessing stage is summarized as follows:
[0077] E 拆解回收 =E 处理过程 +E 电耗 +E 水耗 +E 逸散 +E 其他A -E ccer -E ccus
[0078]
[0079]
[0080] E 水耗 =AD 水 ×EF 水 +AD 再生水 ×EF再生水
[0081]
[0082] Among them, E 拆解回收 E is the carbon emissions generated during the product disassembly and reprocessing stage. 其他A To dismantle the unorganized carbon emissions in the production line, E 处理过程 To dismantle the carbon emissions generated by fossil energy consumption of equipment, AD a,b represents the mass of the ath fossil energy consumed by the bth dismantling equipment, EF a,b It represents the carbon emission factor corresponding to the consumption of the ath fossil energy by the bth dismantling equipment. The carbon emission generated by the consumption of fossil energy by the dismantling equipment is Eccer refers to the amount of certification that an enterprise purchases from a company that implements "carbon offset" to offset its own carbon emissions. Eccus refers to the amount of carbon capture, utilization and storage adopted by the enterprise. 电耗 The carbon emissions generated by the consumption of electricity during the product disassembly and reprocessing stage include the carbon emissions generated by the purchase and use of electricity by the enterprise and the carbon emissions generated by the enterprise's own production of electricity. 购买电力 AD is the carbon emission factor of the electricity purchased and used by the enterprise. 购买电力 The amount of electricity purchased and used by the enterprise. The carbon emissions generated by the purchase and use of electricity by the enterprise are AD 购买电力 ×EF 购买电力 , A.D. 自发j is the amount of electric energy produced independently by the enterprise in the jth production mode, EF 自发j is the carbon emission factor corresponding to the j-th production mode of self-produced electric energy. The carbon emission generated by the enterprise's self-produced electric energy is E 水耗 The carbon emissions generated by the use of water resources in the product disassembly and reprocessing stage include carbon emissions generated by external water resources and carbon emissions generated by recycling wastewater. 水 The quality of external water resources for enterprises, EF 水 is the carbon emission factor of the external water resources of the enterprise, AD 再生水 The quality of wastewater recycled by enterprises, EF 再生水 is the carbon emission factor of wastewater recycling by the enterprise. The carbon emission generated by wastewater recycling by the enterprise is AD 再生水 ×EF 再生水 , E 逸散 To dismantle the carbon emissions emitted when the equipment consumes fossil energy, AD a*b* is the mass of the fugitives generated when the b*th dismantling equipment consumes the a*th fossil energy, EFa*b* is the carbon emission factor corresponding to the fugitives generated when the b*th dismantling equipment consumes the a*th fossil energy, and the carbon emission emitted when the dismantling equipment consumes fossil energy is
[0083] Carbon emissions generated during the sales stage include: carbon emissions from employee commuting and personnel behavior in the supply chain, and carbon emissions from product use and after-sales services.
[0084] For example, the relevant data that need to be analyzed and counted during the sales stage include: energy used by relevant transportation tools and average energy consumption per ton of product, comprehensive carbon emission statistics of supply chain data, after-sales related travel and commuting data of corporate employees, etc.
[0085] Furthermore, in order to make the accounting method of carbon emissions generated in the sales stage more refined, the calculation formula of carbon emissions generated in the sales stage is summarized as follows:
[0086] E 销售 =E 其他B +E 通勤
[0087] E 通勤 =AD 通勤 ×EF 通勤
[0088] Among them, E 销售 is the carbon emissions generated during the sales phase, E 通勤 Carbon emissions generated by employees’ commuting during the sales process, E 其他B AD is the carbon emissions generated by product use and after-sales service during the sales process. 通勤 is the total commuting volume of employees, EF 通勤 is the carbon emission factor corresponding to employee commuting. The carbon emission generated by employee commuting during the sales process is AD 通勤 ×EF 通勤 .
[0089] By dividing the recycling process of electronic devices into four recycling stages, analyzing the carbon emissions that may be generated in each recycling stage, and then clustering them, the carbon emission measurement targets in the electronic equipment recycling process are clarified, and the boundaries of carbon emission accounting are specifically divided, which solves the problem of blurred accounting boundaries of carbon emissions from electronic equipment recycling and improves the authenticity and accuracy of carbon emission reporting data during the recycling process.
[0090] Step S120, counting the values of various carbon emissions in the four recycling stages and calculating the total carbon emissions generated during the recycling process of the electronic equipment and the average carbon emissions generated by processing a single piece of electronic equipment.
[0091] Furthermore, in order to calculate the total carbon emissions generated during the recycling of electronic devices, the calculation formulas for the total carbon emissions generated during the recycling of electronic devices and the average carbon emissions generated by processing a single piece of electronic equipment are summarized as follows:
[0092] E 总 =E 回收 +E 运输 +E 拆解回收 +E 销售
[0093] E p =(E 回收 +E 运输 +E 拆解回收 +E 销售 )
[0094] Among them, E 总 is the total carbon emissions generated during the recycling of electronic equipment, P is the total number of electronic equipment processed during the recycling of electronic equipment, and E p The average carbon emissions generated by processing a single piece of electronic equipment during the recycling process.
[0095] Reference Figure 3 As shown, in this embodiment, a dual-carbon recycling platform for electronic equipment is also provided, which includes at least a carbon emission accounting module, and may also include a carbon-related database, a data visualization module and an early warning module. The carbon emission accounting module is used to execute the carbon emission accounting method provided by the present invention to obtain the values of each carbon emission in the four recycling stages of the electronic equipment, the value of the total carbon emission during the recycling process, and the value of the carbon emission generated by the average processing of a single piece of electronic equipment. The carbon-related database includes a carbon emission factor library and an industry specification database for each stage. The carbon-related database is used to store these values, and then the data visualization module displays these values. At the same time, the early warning module compares the values of each carbon emission in the four recycling stages of the electronic equipment with the range specified by the industry specification database for each stage. If the values of each carbon emission in a certain recycling stage exceed the range specified by the industry specification database for each stage, a warning signal is sent, so that the platform can prompt the enterprise management personnel based on the abnormal fluctuation data of the real-time monitoring of carbon emissions, thereby completing the real-time viewing of the current working conditions of each work unit at the management end.
[0096] With respect to step S110 and step S120 in the above embodiment, a method for calculating carbon emissions from recycling a mobile phone or tablet is provided as follows. Figure 4 As shown, the method flow includes the following steps.
[0097] 1. Determine the total process flow system boundaries applicable to the cell phone or tablet that will be utilized by the recycling enterprise.
[0098] 2. Based on the system boundaries, it is divided into raw material acquisition stage, transportation stage, product disassembly and reprocessing stage, and sales stage.
[0099] 3. Determine the input energy types, carbon emission accounting methods and related data at each stage.
[0100] 4. Complete dynamic monitoring of carbon emissions from production lines and establish a carbon emissions database related to the recycling of mobile phones or tablet computers.
[0101] 5. Calculate the carbon emissions during the recycling process based on the carbon emission accounting methods at different stages of mobile phone or tablet recycling.
[0102] 6. Integrate the carbon emission data of the recycling process of mobile phones or tablets into a visual dual-carbon platform.
[0103] The present invention divides the recycling process of electronic equipment into four recycling stages, analyzes the carbon emissions that may be generated in each recycling stage, and then clusters them, thereby clarifying the carbon emission measurement target in the recycling process of electronic equipment and specifically dividing the boundaries of carbon emission accounting, solving the problem of blurred accounting boundaries of carbon emissions from electronic equipment recycling and improving the authenticity and accuracy of data in carbon emission reports during the recycling process.
[0104] Furthermore, the present invention establishes a dual-carbon recycling platform for electronic equipment, and the platform executes the carbon emission accounting method to obtain the values of various carbon emissions in the four recycling stages of the electronic equipment, the total carbon emissions during the recycling process, and the average carbon emissions generated by processing a single piece of electronic equipment, and uploads these values to the carbon-related database for update, and then displays the values by the data visualization module to facilitate observation by staff. The platform is also equipped with an early warning module, which can compare these values with the ranges specified in the industry specification database for each stage. If the values of various carbon emissions in a certain recycling stage exceed the ranges specified in the industry specification database for each stage, an early warning signal is sent, so that the platform can prompt enterprise managers based on the abnormal fluctuation data of real-time monitoring of carbon emissions, thereby completing real-time viewing of the current working status of each work unit at the management end, solving the problem of difficulty in real-time monitoring of various carbon emissions during the recycling of electronic equipment, and ensuring the smooth recycling of electronic equipment.
[0105] It should be understood that the specific embodiments described herein are only used to explain the application, rather than to limit it. Based on the embodiments provided in this application, all other embodiments obtained by ordinary technicians in this field without creative work are within the protection scope of this application.
[0106] Obviously, the drawings are only some examples or embodiments of the present application. For ordinary technicians in the field, the present application can also be applied to other similar situations based on these drawings without creative work. In addition, it is understandable that although the work done in this development process may be complicated and lengthy, for ordinary technicians in the field, certain changes in design, manufacturing or production based on the technical content disclosed in this application are only conventional technical means and should not be regarded as insufficient content disclosed in this application.
Claims
1. A method for calculating carbon emissions in the recycling process of electronic equipment, characterized in that: include: Obtain the values of various carbon emissions in the four recycling stages of electronic equipment; the four recycling stages are respectively the raw material acquisition stage, the transportation stage, the product disassembly and reprocessing stage, and the sales stage; the various carbon emissions in the raw material acquisition stage include: carbon emissions generated by the behavior of personnel in the recycling industry chain, and carbon emissions generated by machine sorting of recyclables; the various carbon emissions generated in the transportation stage include: carbon emissions generated by transportation tools; the various carbon emissions generated in the product disassembly and reprocessing stage include: carbon emissions generated by the purchase and use of electric energy by enterprises, carbon emissions generated by the independent production of electric energy by enterprises, carbon emissions generated by the use of water resources by enterprises, carbon emissions generated by the consumption of fossil energy by disassembling equipment, carbon emissions emitted when disassembling equipment consumes fossil energy, and unorganized carbon emissions from disassembling production lines; carbon emissions generated in the sales stage include: carbon emissions generated by employee commuting, and carbon emissions generated by product use and after-sales service; The values of carbon emissions in the four recycling stages are counted and the total carbon emissions generated during the recycling of electronic equipment and the average carbon emissions generated by processing a single piece of electronic equipment are calculated.
2. The method for calculating recycled carbon emissions according to claim 1, characterized in that: The calculation formula for carbon emissions generated during the raw material acquisition stage is as follows: Among them, E 回收 AD is the carbon emissions generated in the raw material acquisition stage. 回收i is the energy consumed by the i-th machine to sort recyclables, EF 回收i is the carbon emission factor corresponding to the energy consumption of the i-th machine sorting recyclables. The carbon emission generated by the machine sorting recyclables is E 人工 To recycle the carbon emissions generated by the behavior of people in the industrial chain.
3. The carbon emission accounting method according to claim 1, characterized in that: Transportation tools include vehicles, ships and airplanes. The calculation formula for carbon emissions generated during the transportation stage is as follows: AND 运输 =And 陆运 +E 海运 +E 空运 Among them, E 运输 Represents the carbon emissions generated during the transportation phase, E 陆运 Represents the carbon emissions generated by vehicles, including fuel vehicles and electric vehicles, E 海运 represents the carbon emissions generated by the ship, E 空运 Indicates the carbon emissions generated by aircraft, AD j represents the mass of the jth fossil energy consumed by the fuel vehicle, EF 化石能源-j represents the carbon emission factor corresponding to the jth fossil energy consumed by the fuel vehicle. The carbon emission generated by the fuel vehicle is AD 电力i is the electric energy consumed by the tram passing through the i-th transportation area, EF 电力i is the carbon emission factor of electric energy production corresponding to the i-th transportation area, and the carbon emission generated by the tram is AD m is the mass of the mth fossil energy consumed by the ship, EF 化石能源-m is the carbon emission factor corresponding to the mth fossil energy consumed by the ship, and the carbon emission generated by the ship is AD t is the mass of the tth fossil energy consumed by the aircraft, EF 化石能源-t is the carbon emission factor corresponding to the tth fossil energy consumed by the aircraft, and the carbon emissions generated by the aircraft are 4. The carbon emission accounting method according to claim 1, characterized in that: The calculation formula for carbon emissions generated during the product disassembly and reprocessing stage is as follows: AND 拆解回收 =And 处理过程 +E 电耗 +E 水耗 +E 逸散 +E 其他A -AND ccer -AND ccus AND 水耗 =AD 水 ×EF 水 +AD 再生水 ×EF 再生水 Among them, E 拆解回收 E is the carbon emissions generated during the product disassembly and reprocessing stage. 其他A To dismantle the unorganized carbon emissions in the production line, E 处理过程 To dismantle the carbon emissions generated by fossil energy consumption of equipment, AD a,b represents the mass of the ath fossil energy consumed by the bth dismantling equipment, EF a,b It represents the carbon emission factor corresponding to the consumption of the ath fossil energy by the bth dismantling equipment. The carbon emission generated by the consumption of fossil energy by the dismantling equipment is Eccer refers to the amount of certification that an enterprise purchases from a company that implements "carbon offset" to offset its own carbon emissions. Eccus refers to the amount of carbon capture, utilization and storage adopted by the enterprise. 电耗 The carbon emissions generated by the consumption of electricity during the product disassembly and reprocessing stage include the carbon emissions generated by the purchase and use of electricity by the enterprise and the carbon emissions generated by the enterprise's own production of electricity. 购买电力 AD is the carbon emission factor of the electricity purchased and used by the enterprise. 购买电力 The amount of electricity purchased and used by the enterprise. The carbon emissions generated by the purchase and use of electricity by the enterprise are AD 购买电力 ×EF 购买电力 , A.D. 自发j is the amount of electric energy produced independently by the enterprise in the jth production mode, EF 自发j is the carbon emission factor corresponding to the j-th production mode of self-produced electric energy. The carbon emission generated by the enterprise's self-produced electric energy is E 水耗 The carbon emissions generated by the use of water resources in the product disassembly and reprocessing stage include carbon emissions generated by external water resources and carbon emissions generated by recycling wastewater. 水 The quality of external water resources for enterprises, EF 水 is the carbon emission factor of the external water resources of the enterprise, AD 再生水 The quality of wastewater recycled by enterprises, EF 再生水 is the carbon emission factor of wastewater recycling by the enterprise. The carbon emission generated by wastewater recycling by the enterprise is AD 再生水 ×EF 再生水 , E 逸散 To dismantle the carbon emissions emitted when the equipment consumes fossil energy, AD a*b* is the mass of the fugitives generated when the b*th dismantling equipment consumes the a*th fossil energy, EFa*b* is the carbon emission factor corresponding to the fugitives generated when the b*th dismantling equipment consumes the a*th fossil energy, and the carbon emission emitted when the dismantling equipment consumes fossil energy is 5. The carbon emission accounting method according to claim 1, characterized in that: The calculation formula for carbon emissions generated during the sales phase is as follows: AND 销售 =And 其他B +E 通勤 AND 通勤 =AD 通勤 ×EF 通勤 Among them, E 销售 is the carbon emissions generated during the sales phase, E 通勤 Carbon emissions generated by employees’ commuting during the sales process, E 其他B AD is the carbon emissions generated by product use and after-sales service during the sales process. 通勤 is the total commuting volume of employees, EF 通勤 is the carbon emission factor corresponding to employee commuting. The carbon emission generated by employee commuting during the sales process is AD 通勤 ×EF 通勤 .
6. The method for calculating recycled carbon emissions according to claim 5, characterized in that: The calculation formula for the total carbon emissions generated during the recycling of electronic devices and the average carbon emissions generated by processing a single piece of electronic equipment is as follows: AND 总 =And 回收 +E 运输 +E 拆解回收 +E 销售 AND p =(And 回收 +E 运输 +E 拆解回收 +E 销售 )P Among them, E 总 is the total carbon emissions generated during the recycling of electronic equipment, P is the total number of electronic equipment processed during the recycling of electronic equipment, and E p The average carbon emissions generated by processing a single piece of electronic equipment during the recycling process.
7. The carbon emission accounting method according to claim 1, characterized in that: The carbon emissions in each recycling stage are obtained by: Install collection equipment to read, read from public databases, and investigate work logs and field research readings, etc.
8. A dual-carbon recycling platform for electronic equipment, characterized in that: include: A carbon emission accounting module, used to execute the carbon emission accounting method described in any one of claims 1-7 to obtain the values of each carbon emission in the four recycling stages of the electronic equipment, the value of the total carbon emission during the recycling process, and the value of the carbon emission generated by the average processing of a single piece of electronic equipment.
9. The dual carbon recovery platform according to claim 8, characterized in that: Also includes: A carbon-related database, including a carbon emission factor library and a database of industry specifications for each stage. The carbon-related database is used to store the values of carbon emissions in the four recycling stages of electronic equipment calculated by the carbon emission accounting module, the total carbon emissions during the recycling process, and the average carbon emissions generated by processing a single piece of electronic equipment; The data visualization module is used to display the values of each carbon emission in the four recycling stages of electronic equipment, the total carbon emission value in the recycling process, and the average carbon emission value generated by processing a single piece of electronic equipment.
10. The dual carbon recycling platform according to claim 8, characterized in that: Also includes: The early warning module is used to compare the values of various carbon emissions in the four recycling stages of electronic equipment with the ranges specified in the industry standard database for each stage. If the values of various carbon emissions in a certain recycling stage exceed the ranges specified in the industry standard database for each stage, an early warning signal is sent.