A Carbon Emission Accounting Method for Carbon Emission Entities in the Service Industry

Abstract

The present invention discloses a carbon emission accounting method for carbon emission entities in the service industry, which includes the following steps: statistically counting the equipment and personnel in all work processes of the service industry, respectively counting the number of equipment and the number of personnel; respectively counting the daily activity personnel of each piece of equipment, where the daily activity personnel refers to the number of personnel when the equipment can have an impact on the carbon emissions of the personnel; calculating the impact coefficient of each piece of equipment on the personnel; calculating the daily carbon emissions of each piece of equipment; calculating the average daily emissions of each person; adding the carbon emission impact value of the equipment on the personnel, the daily carbon emissions of each piece of equipment, and the average daily emissions of each person to obtain the daily carbon emissions of the entire industry. The present invention can accurately account for the carbon emissions of the service industry to solve the problem of deficiencies in the existing technology in terms of carbon emission accounting for the service industry.

Description

Technical Field

[0001] The present invention relates to the technical field of carbon emissions, and in particular to a method for calculating carbon emissions of carbon emission entities in the service industry. Background Art

[0002] The service industry refers to the general term of industries in the electronic information era. The concept of the service industry is still controversial in the theoretical circle. Generally, it is considered that the service industry refers to the collection of production departments and enterprises that engage in the production of service products. Carbon emissions refer to greenhouse gas emissions, which cause the greenhouse effect and increase the global temperature. While the earth absorbs solar radiation, it also radiates heat to outer space, and its thermal radiation is mainly long-wave infrared rays of 3-30 μm. When such long-wave radiation enters the atmosphere, it is easily absorbed by some gas molecules with larger molecular weights and stronger polarities. In the existing technology, when calculating carbon emissions in the service industry, the calculation method is relatively single, and it is difficult to accurately calculate the carbon emissions of the entire industry. Summary of the Invention

[0003] Aiming at the deficiencies of the existing technology, the purpose of the present invention is to provide a method for calculating carbon emissions of carbon emission entities in the service industry, which can accurately calculate the carbon emissions of the service industry to solve the problems existing in the carbon emission calculation of the service industry in the existing technology.

[0004] In order to achieve the above purpose, the present invention is realized through the following technical solutions: A method for calculating carbon emissions of carbon emission entities in the service industry, the calculation method includes the following steps:

[0005] Step A: Statistically count the equipment and personnel in all work processes of the service industry, and respectively count the number of equipment and the number of personnel.

[0006] Step B: Respectively count the daily activity personnel of each piece of equipment, and the daily activity personnel refer to the number of personnel when the equipment can affect the carbon emissions of the personnel.

[0007] Step C: Calculate the influence coefficient of each piece of equipment on personnel.

[0008] Step D: Calculate the daily carbon emissions of each piece of equipment.

[0009] Step E: Calculate the average daily emissions of each person.

[0010] Step F: Add the carbon emission influence value of the equipment on personnel, the daily carbon emissions of each piece of equipment, and the average daily emissions of each person to obtain the daily carbon emissions of the entire industry.

[0011] Furthermore, the step A further includes step A1, and the step A1 includes:

[0012] Classify the types of the devices into a first impact level device, a second impact level device, and a third impact level device respectively;

[0013] Among them, the carbon emission impact coefficient of the first impact level device on personnel is greater than or equal to the first coefficient threshold;

[0014] The carbon emission impact coefficient of the second impact level device on personnel is greater than or equal to the second coefficient threshold and less than the first coefficient threshold;

[0015] The carbon emission impact coefficient of the third impact level device on personnel is less than the second coefficient threshold; and the first coefficient threshold is greater than the second coefficient threshold.

[0016] Furthermore, step A of the method further includes step A2, and step A2 includes:

[0017] Statistical number of daily active personnel in the industry, where the number of daily active personnel is the average value of the number of daily active personnel in the industry in the current month, and the daily active personnel are those whose active time is within the first time range;

[0018] Classify the daily active personnel into first active level personnel, second active level personnel, and third active level personnel;

[0019] Among them, the daily active time of the first active level personnel is greater than or equal to the first time threshold;

[0020] The daily active time of the second active level personnel is greater than or equal to the second time threshold and less than the first time threshold;

[0021] The daily active time of the third active level personnel is less than the second time threshold; and the first time threshold is greater than the second time threshold.

[0022] Furthermore, step B of the method includes step B1, and step B1 includes:

[0023] Statistically count the number of different levels of active personnel for different levels of devices respectively;

[0024] Mark the number of the three types of active level personnel of the first impact level device as Sb1r1, Sb1r2, and Sb1r3 respectively, where Sb1r1 is the number of the first active level personnel affected by the first impact level device, Sb1r2 is the number of the second active level personnel affected by the first impact level device, and Sb1r3 is the number of the third active level personnel affected by the first impact level device;

[0025] Mark the number of personnel in the three active levels of the second impact level equipment as Sb2r1, Sb2r2, and Sb2r3 respectively. Among them, Sb2r1 is the number of personnel in the first active level affected by the second impact level equipment, Sb2r2 is the number of personnel in the second active level affected by the second impact level equipment, and Sb2r3 is the number of personnel in the third active level affected by the second impact level equipment;

[0026] Mark the number of personnel in the three active levels of the third impact level equipment as Sb3r1, Sb3r2, and Sb3r3 respectively. Among them, Sb3r1 is the number of personnel in the first active level affected by the third impact level equipment, Sb3r2 is the number of personnel in the second active level affected by the third impact level equipment, and Sb3r3 is the number of personnel in the third active level affected by the third impact level equipment.

[0027] Furthermore, step C includes step C1, and step C1 includes:

[0028] Mark the influence coefficients of the first impact level equipment on the three active levels of personnel as Sb1r1k1, Sb1r2k2, and Sb1r3k3 respectively. Among them, Sb1r1k1 is the influence coefficient of the first impact level equipment on the first active level of personnel, Sb1r2k2 is the influence coefficient of the first impact level equipment on the second active level of personnel, and Sb1r3k3 is the influence coefficient of the first impact level equipment on the third active level of personnel;

[0029] Mark the influence coefficients of the second impact level equipment on the three active levels of personnel as Sb2r1k1, Sb2r2k2, and Sb2r3k3 respectively. Among them, Sb2r1k1 is the influence coefficient of the second impact level equipment on the first active level of personnel, Sb2r2k2 is the influence coefficient of the second impact level equipment on the second active level of personnel, and Sb2r3k3 is the influence coefficient of the second impact level equipment on the third active level of personnel;

[0030] Mark the influence coefficients of the third impact level equipment on the three active levels of personnel as Sb3r1k1, Sb3r2k2, and Sb3r3k3 respectively. Among them, Sb3r1k1 is the influence coefficient of the third impact level equipment on the first active level of personnel, Sb3r2k2 is the influence coefficient of the third impact level equipment on the second active level of personnel, and Sb3r3k3 is the influence coefficient of the third impact level equipment on the third active level of personnel.

[0031] Furthermore, step D includes step D1, and step D1 includes:

[0032] Statistically calculate the operating power and daily operating time of each device, and substitute the operating power and daily operating time of each device into the device carbon emission formula to calculate the daily carbon emissions of each device;

[0033] Mark the daily carbon emissions of the first impact level devices as Tpy1, mark the daily carbon emissions of the second impact level devices as Tpy2, and mark the daily carbon emissions of the third impact level devices as Tpy3.

[0034] Further, the device carbon emission formula is configured as: Tpy = a1×Ws×Ss; where Tpy is the daily carbon emissions of the device, Ws is the operating power of the device, Ss is the daily operating time of the device, and a1 is the device carbon emission conversion coefficient.

[0035] Further, step E further includes step E1, and step E1 includes:

[0036] Obtain the total monthly carbon emissions of personnel in this industry from the industry database, divide the total monthly carbon emissions of personnel by the total number of monthly personnel and the number of days in a month to obtain the daily average emissions per person;

[0037] Multiply the daily average emissions per person by the number of daily active personnel to obtain the total daily carbon emissions of personnel.

[0038] Further, step F includes step F1, and step F1 includes:

[0039] Substitute the impact coefficients of the first impact level devices on three types of personnel levels and the number of people in the three types of personnel levels into the first impact formula to obtain the first impact value; substitute the impact coefficients of the second impact level devices on three types of personnel levels and the number of people in the three types of personnel levels into the second impact formula to obtain the second impact value; substitute the impact coefficients of the third impact level devices on three types of personnel levels and the number of people in the three types of personnel levels into the third impact formula to obtain the third impact value;

[0040] Substitute the first impact value, the second impact value, the third impact value, the total daily carbon emissions of personnel, and the daily carbon emissions of each type of device into the total carbon emission formula to obtain the total daily emissions of the industry.

[0041] Further, the first impact formula is configured as:

[0042] Y1 = Sb1r1 × Sb1r1k1 + Sb1r2 × Sb1r2k2 + Sb1r3 × Sb1r3k3; The second influence formula is configured as: Y2 = Sb2r1 × Sb2r1k1 + Sb2r2 × Sb2r2k2 + Sb3r3 × Sb3r3k3; The third influence formula is configured as: Y3 = Sb3r1 × Sb3r1k1 + Sb3r2 × Sb3r2k2 + Sb3r3 × Sb3r3k3; where Y1 is the first influence value, Y2 is the second influence value, and Y3 is the third influence value;

[0043] The total carbon emission formula is configured as: Tpz = Y1 + Y2 + Y3 + Tpy1 + Tpy2 + Tpy3 + Rrpz; where Tpz is the daily total emission and Rrpz is the daily carbon emission of personnel.

[0044] The beneficial effects of the present invention are as follows:

[0045] 1. By statistically counting the equipment and personnel in all work processes of the service industry, the number of equipment and the number of personnel are respectively counted. By separately counting the equipment and personnel, the influence amounts of the equipment and personnel on carbon emissions can be obtained respectively.

[0046] 2. By separately counting the daily activity personnel of each piece of equipment, the daily activity personnel is expressed as the number of personnel when the equipment can have an impact on the carbon emissions of the personnel, and then the influence coefficient of each piece of equipment on the personnel is calculated; the carbon emission impacts of each piece of equipment on personnel in different activity categories can be separately counted, improving the accuracy of carbon emission accounting.

[0047] 3. By calculating the daily carbon emissions of each piece of equipment; then calculating the average daily emissions of each person; finally, adding the carbon emission influence value of the equipment on the personnel, the daily emissions of each piece of equipment, and the average daily emissions of each person to obtain the daily carbon emissions of the entire industry, thereby realizing the calculation of the total carbon emissions of the service industry. Description of the Drawings

[0048] Figure 1 It is a schematic flow chart of a method for calculating the carbon emissions of carbon emission entities in the service industry disclosed in an embodiment of the present invention. Detailed Embodiments

[0049] To make the objectives, technical solutions, and advantages of the embodiments of the present invention clearer, the technical solutions in the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings in the embodiments of the present invention. Obviously, the described embodiments are some, but not all, of the embodiments of the present invention. All other embodiments obtained by those of ordinary skill in the art based on the embodiments of the present invention without creative efforts shall fall within the protection scope of the present invention.

[0050] The present invention will be further described in detail below with reference to the accompanying drawings:

[0051] As Figure 1 shown, according to a carbon emission accounting method for carbon emission entities in the service industry provided by the present invention, the accounting method includes the following steps:

[0052] Step A: Statistically count the equipment and personnel in all work processes of the service industry, and separately count the number of equipment and the number of personnel;

[0053] Step B: Separately count the daily active personnel of each piece of equipment. The daily active personnel refers to the number of personnel when the equipment can have an impact on the carbon emissions of the personnel;

[0054] Step C: Calculate the impact coefficient of each piece of equipment on the personnel;

[0055] Step D: Calculate the daily carbon emissions of each piece of equipment;

[0056] Step E: Calculate the average daily emissions of each personnel;

[0057] Step F: Add up the carbon emission impact value of the equipment on the personnel, the daily carbon emissions of each piece of equipment, and the average daily emissions of each personnel to obtain the daily carbon emissions of the entire industry.

[0058] According to the carbon emission accounting method for carbon emission entities in the service industry disclosed in the above embodiment, the accounting method includes the following steps:

[0059] Step A further includes step A1, and step A1 includes:

[0060] Classify the types of equipment, and classify them into first impact level equipment, second impact level equipment, and third impact level equipment respectively;

[0061] Among them, the carbon emission impact coefficient of the first impact level equipment on the personnel is greater than or equal to the first coefficient threshold;

[0062] The carbon emission impact coefficient of the second impact level equipment on the personnel is greater than or equal to the second coefficient threshold and less than the first coefficient threshold;

[0063] The carbon emission impact coefficient of the third impact level equipment on the personnel is less than the second coefficient threshold; and the first coefficient threshold is greater than the second coefficient threshold.

[0064] Step A further includes step A2, and step A2 includes:

[0065] Statistically count the number of daily active personnel in the industry. The number of daily active personnel is the average value of the number of daily active personnel in the industry in that month. The daily active personnel refers to the personnel whose active time is within the first time range;

[0066] Divide the daily active personnel into first-level active personnel, second-level active personnel, and third-level active personnel;

[0067] Among them, the daily active time of the first-level active personnel is greater than or equal to the first time threshold;

[0068] The daily active time of the second-level active personnel is greater than or equal to the second time threshold and less than the first time threshold;

[0069] The daily active time of the third-level active personnel is less than the second time threshold; and the first time threshold is greater than the second time threshold.

[0070] Step B includes Step B1, and Step B1 includes:

[0071] Count the number of active personnel at different levels of different-level devices respectively;

[0072] Mark the number of the three types of active-level personnel of the first-level impact device as Sb1r1, Sb1r2, and Sb1r3 respectively. Among them, Sb1r1 is the number of the first-level active personnel affected by the first-level impact device, Sb1r2 is the number of the second-level active personnel affected by the first-level impact device, and Sb1r3 is the number of the third-level active personnel affected by the first-level impact device;

[0073] Mark the number of the three types of active-level personnel of the second-level impact device as Sb2r1, Sb2r2, and Sb2r3 respectively. Among them, Sb2r1 is the number of the first-level active personnel affected by the second-level impact device, Sb2r2 is the number of the second-level active personnel affected by the second-level impact device, and Sb2r3 is the number of the third-level active personnel affected by the second-level impact device;

[0074] Mark the number of the three types of active-level personnel of the third-level impact device as Sb3r1, Sb3r2, and Sb3r3 respectively. Among them, Sb3r1 is the number of the first-level active personnel affected by the third-level impact device, Sb3r2 is the number of the second-level active personnel affected by the third-level impact device, and Sb3r3 is the number of the third-level active personnel affected by the third-level impact device.

[0075] Step C includes Step C1, and Step C1 includes:

[0076] Mark the influence coefficients of the first-level impact devices on three types of active-level personnel as Sb1r1k1, Sb1r2k2, and Sb1r3k3 respectively. Among them, Sb1r1k1 is the influence coefficient of the first-level impact device on the first active-level personnel, Sb1r2k2 is the influence coefficient of the first-level impact device on the second active-level personnel, and Sb1r3k3 is the influence coefficient of the first-level impact device on the third active-level personnel;

[0077] Mark the influence coefficients of the second-level impact devices on three types of active-level personnel as Sb2r1k1, Sb2r2k2, and Sb2r3k3 respectively. Among them, Sb2r1k1 is the influence coefficient of the second-level impact device on the first active-level personnel, Sb2r2k2 is the influence coefficient of the second-level impact device on the second active-level personnel, and Sb2r3k3 is the influence coefficient of the second-level impact device on the third active-level personnel;

[0078] Mark the influence coefficients of the third-level impact devices on three types of active-level personnel as Sb3r1k1, Sb3r2k2, and Sb3r3k3 respectively. Among them, Sb3r1k1 is the influence coefficient of the third-level impact device on the first active-level personnel, Sb3r2k2 is the influence coefficient of the third-level impact device on the second active-level personnel, and Sb3r3k3 is the influence coefficient of the third-level impact device on the third active-level personnel.

[0079] Step D includes Step D1, and Step D1 includes:

[0080] Statistically analyze the operating power and daily operating time of each device, and substitute the operating power and daily operating time of each device into the device carbon emission formula to calculate the daily carbon emissions of each device;

[0081] Mark the daily carbon emissions of the first-level impact devices as Tpy1, mark the daily carbon emissions of the second-level impact devices as Tpy2, and mark the daily carbon emissions of the third-level impact devices as Tpy3.

[0082] The device carbon emission formula is configured as: Tpy = a1 × Ws × Ss; where Tpy is the daily carbon emissions of the device, Ws is the operating power of the device, Ss is the daily operating time of the device, and a1 is the device carbon emission conversion coefficient.

[0083] Step E also includes Step E1, and Step E1 includes:

[0084] Obtain the total monthly carbon emissions of personnel in this industry from the industry database, and divide the total monthly carbon emissions of personnel by the total number of monthly personnel and the number of days in a month to obtain the daily average emissions per person;

[0085] Multiply the average daily emissions per person by the number of daily active persons to obtain the total daily carbon emissions of the personnel.

[0086] Step F includes step F1, and step F1 includes:

[0087] Substitute the influence coefficients of the first-level impact equipment on three types of personnel levels and the number of three types of personnel levels into the first impact formula to obtain the first impact value; substitute the influence coefficients of the second-level impact equipment on three types of personnel levels and the number of three types of personnel levels into the second impact formula to obtain the second impact value; substitute the influence coefficients of the third-level impact equipment on three types of personnel levels and the number of three types of personnel levels into the third impact formula to obtain the third impact value.

[0088] Substitute the first impact value, the second impact value, the third impact value, the total daily carbon emissions of the personnel, and the daily carbon emissions of each type of equipment into the total carbon emissions formula to obtain the total daily emissions of the industry.

[0089] The first impact formula is configured as: Y1 = Sb1r1 × Sb1r1k1 + Sb1r2 × Sb1r2k2 + Sb1r3 × Sb1r3k3;

[0090] The second impact formula is configured as: Y2 = Sb2r1 × Sb2r1k1 + Sb2r2 × Sb2r2k2 + Sb3r3 × Sb3r3k3;

[0091] The third impact formula is configured as: Y3 = Sb3r1 × Sb3r1k1 + Sb3r2 × Sb3r2k2 + Sb3r3 × Sb3r3k3;

[0092] Among them, Y1 is the first impact value, Y2 is the second impact value, and Y3 is the third impact value;

[0093] The total carbon emissions formula is configured as: Tpz = Y1 + Y2 + Y3 + Tpy1 + Tpy2 + Tpy3 + Rrpz; where Tpz is the total daily emissions, and Rrpz is the total daily carbon emissions of the personnel.

[0094] Finally, it should be noted that the above-described embodiments are only specific embodiments of the present invention, used to illustrate the technical solutions of the present invention, rather than limiting it. The protection scope of the present invention is not limited thereto. Although the present invention has been described in detail with reference to the foregoing embodiments, those of ordinary skill in the art should understand that any technician familiar with the technical field of the present invention can still modify the technical solutions recorded in the foregoing embodiments, or can easily think of changes, or perform equivalent replacements on some of the technical features; and these modifications, changes or replacements do not make the essence of the corresponding technical solutions deviate from the spirit and scope of the technical solutions of the embodiments of the present invention, and should all be covered by the protection scope of the present invention. Therefore, the protection scope of the present invention should be subject to the protection scope of the claims described.

Claims

1. A carbon emission accounting method for carbon emission entities in the service industry, characterized in that, The accounting method includes the following steps: Step A: Statistically count the equipment and personnel for all work processes in the service industry, and separately count the number of equipment and the number of personnel. Step B: Separately count the daily active personnel for each piece of equipment, where the daily active personnel refers to the number of personnel when the equipment can have an impact on the carbon emissions of the personnel. Step C: Calculate the impact coefficient of each piece of equipment on the personnel. Step D: Calculate the daily carbon emissions of each piece of equipment. Step D includes Step D1, and Step D1 includes: Statistically count the operating power and daily operating time of each piece of equipment, and substitute the operating power and daily operating time of each piece of equipment into the equipment carbon emission formula to calculate the daily carbon emissions of each piece of equipment. Step E: Calculate the average daily emissions of each person. Step E also includes Step E1, and Step E1 includes: Obtain the total monthly carbon emissions of personnel in this industry from the industry database, divide the total monthly carbon emissions of personnel by the total number of monthly personnel and the number of days in a month to obtain the average daily emissions of each person. Multiply the average daily emissions of each person by the number of daily active personnel to obtain the total daily carbon emissions of personnel. Step F: Add the carbon emission impact value of the equipment on the personnel, the daily carbon emissions of each piece of equipment, and the average daily emissions of each person to obtain the daily carbon emissions of the entire industry. Add the average daily emissions of each person to obtain the total daily carbon emissions of personnel.

2. The carbon emission accounting method for the carbon emission entity in the service industry according to claim 1, wherein Step A also includes Step A1, and Step A1 includes: Classify the types of the equipment into first-level impact equipment, second-level impact equipment, and third-level impact equipment respectively. Among them, the carbon emission impact coefficient of the first-level impact equipment on the personnel is greater than or equal to the first coefficient threshold. The carbon emission impact coefficient of the second-level impact equipment on the personnel is greater than or equal to the second coefficient threshold and less than the first coefficient threshold. The carbon emission impact coefficient of the third-level impact equipment on the personnel is less than the second coefficient threshold; and the first coefficient threshold is greater than the second coefficient threshold.

3. The carbon emission accounting method for the carbon emission entity in the service industry according to claim 2, characterized in that, Step A also includes Step A2, and Step A2 includes: Statistically count the number of daily active personnel in this industry, where the number of daily active personnel is the average value of the number of daily active personnel in this industry in the current month, and the daily active personnel refers to the personnel whose active time is within the first time range. Divide the daily active personnel into first-level active personnel, second-level active personnel, and third-level active personnel. Among them, the daily active time of the first-level active personnel is greater than or equal to the first time threshold. The daily active time of the second-level active personnel is greater than or equal to the second time threshold and less than the first time threshold. The daily active time of the third-level active personnel is less than the second time threshold; and the first time threshold is greater than the second time threshold.

4. The carbon emission accounting method for service industry carbon emission entities according to claim 3, characterized in that, Step B includes Step B1, and Step B1 includes: Statistically count the number of different-level active personnel for different-level equipment respectively. Mark the numbers of the three types of active-level personnel of the first-level impact equipment as Sb1r1, Sb1r2, and Sb1r3 respectively, where Sb1r1 is the number of the first active-level personnel affected by the first-level impact equipment, Sb1r2 is the number of the second active-level personnel affected by the first-level impact equipment, and Sb1r3 is the number of the third active-level personnel affected by the first-level impact equipment; Mark the numbers of the three types of active-level personnel of the second-level impact equipment as Sb2r1, Sb2r2, and Sb2r3 respectively, where Sb2r1 is the number of the first active-level personnel affected by the second-level impact equipment, Sb2r2 is the number of the second active-level personnel affected by the second-level impact equipment, and Sb2r3 is the number of the third active-level personnel affected by the second-level impact equipment; Mark the numbers of the three types of active-level personnel of the third-level impact equipment as Sb3r1, Sb3r2, and Sb3r3 respectively, where Sb3r1 is the number of the first active-level personnel affected by the third-level impact equipment, Sb3r2 is the number of the second active-level personnel affected by the third-level impact equipment, and Sb3r3 is the number of the third active-level personnel affected by the third-level impact equipment.

5. The carbon emission accounting method for the carbon emission entity in the service industry according to claim 4, characterized in that, Step C includes step C1, and step C1 includes: Mark the influence coefficients of the first-level impact equipment on the three types of active-level personnel as Sb1r1k1, Sb1r2k2, and Sb1r3k3 respectively, where Sb1r1k1 is the influence coefficient of the first-level impact equipment on the first active-level personnel, Sb1r2k2 is the influence coefficient of the first-level impact equipment on the second active-level personnel, and Sb1r3k3 is the influence coefficient of the first-level impact equipment on the third active-level personnel; Mark the influence coefficients of the second-level impact equipment on the three types of active-level personnel as Sb2r1k1, Sb2r2k2, and Sb2r3k3 respectively, where Sb2r1k1 is the influence coefficient of the second-level impact equipment on the first active-level personnel, Sb2r2k2 is the influence coefficient of the second-level impact equipment on the second active-level personnel, and Sb2r3k3 is the influence coefficient of the second-level impact equipment on the third active-level personnel; Mark the influence coefficients of the third-level impact equipment on the three types of active-level personnel as Sb3r1k1, Sb3r2k2, and Sb3r3k3 respectively, where Sb3r1k1 is the influence coefficient of the third-level impact equipment on the first active-level personnel, Sb3r2k2 is the influence coefficient of the third-level impact equipment on the second active-level personnel, and Sb3r3k3 is the influence coefficient of the third-level impact equipment on the third active-level personnel.

6. The carbon emission accounting method for the carbon emission entity in the service industry according to claim 5, characterized in that, Step D1 also includes: Mark the daily carbon emissions of the first-level impact equipment as Tpy1, mark the daily carbon emissions of the second-level impact equipment as Tpy2, and mark the daily carbon emissions of the third-level impact equipment as Tpy3.

7. The carbon emission accounting method for service industry carbon emission entities according to claim 6, wherein The carbon emission formula of the device is configured as: Tpy = a1 × Ws × Ss; where Tpy is the daily carbon emission of the device, Ws is the operating power of the device, Ss is the daily operating time of the device, and a1 is the carbon emission conversion coefficient of the device.

8. The carbon emission accounting method for the carbon emission entity in the service industry according to claim 7, characterized in that, The step F includes step F1, and the step F1 includes: Substitute the influence coefficients of the first-level impact devices on the three-level personnel and the number of the three-level personnel into the first impact formula to obtain the first impact value; substitute the influence coefficients of the second-level impact devices on the three-level personnel and the number of the three-level personnel into the second impact formula to obtain the second impact value; substitute the influence coefficients of the third-level impact devices on the three-level personnel and the number of the three-level personnel into the third impact formula to obtain the third impact value. Substitute the first impact value, the second impact value, the third impact value, the total daily carbon emission of personnel, and the daily carbon emission of each type of device into the total carbon emission formula to obtain the daily carbon emission of the industry.

9. The carbon emission accounting method for the carbon emission entity in the service industry according to claim 8, wherein The first impact formula is configured as: Y1 = Sb1r1 × Sb1r1k1 + Sb1r2 × Sb1r2k2 + Sb1r3 × Sb1r3k3; the second impact formula is configured as: Y2 = Sb2r1 × Sb2r1k1 + Sb2r2 × Sb2r2k2 + Sb2r3 × Sb2r3k3; the third impact formula is configured as: Y3 = Sb3r1 × Sb3r1k1 + Sb3r2 × Sb3r2k2 + Sb3r3 × Sb3r3k3; where Y1 is the first impact value, Y2 is the second impact value, and Y3 is the third impact value. The total carbon emission formula is configured as: Tpz = Y1 + Y2 + Y3 + Tpy1 + Tpy2 + Tpy3 + Rrpz; where Tpz is the daily carbon emission and Rrpz is the total daily carbon emission of personnel.

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