JP3237670U - Automatic aggregation system for carbon dioxide emissions - Google Patents

Abstract

PROBLEM TO BE SOLVED: To make it possible to aggregate the amount of carbon dioxide emitted by a plurality of different companies. An automatic carbon dioxide emission totaling system has access to a screen generation unit 8a that generates a usage amount input format screen capable of inputting power consumption and gas usage for each company, and an access to the usage amount input format screen. Based on the access permission unit 8b that enables only pre-registered companies and the amount of electricity and gas used input on the usage amount input format screen, the amount of carbon dioxide emissions emitted by multiple companies is totaled. It is provided with a totaling unit 8d and an output unit 8e for outputting the totaled carbon dioxide emissions. [Selection diagram] Fig. 3

Description

The present disclosure relates to an automatic aggregation system that can automatically calculate and aggregate carbon dioxide emissions based on the amount of electricity used and the amount of gas used.

Currently, it is inevitable that carbon dioxide, which is a greenhouse gas, will be emitted by corporate activities. This reduction of carbon dioxide emissions is regarded as important from the viewpoint of environmental protection. In order to reduce carbon dioxide emissions, it is first necessary to manage the actual value of how much carbon dioxide emissions are, and as the management device, Patent Document 1 describes companies' factories, factories, etc. A management device configured to be able to control the amount of carbon dioxide emitted from various devices in a plurality of bases is disclosed.

In the management device of Patent Document 1, the power consumption of a plurality of devices at the base is converted into carbon dioxide emissions based on the carbon dioxide amount conversion value, and the converted carbon dioxide emissions are added up for each device group to calculate. do. Then, the difference between the total carbon dioxide emission amount and the control value of the carbon dioxide emission amount for each device group determined in advance is calculated, and the pass / fail of the carbon dioxide emission amount for each device group is determined based on the calculated difference. Judging.

Japanese Unexamined Patent Publication No. 2009-199495

By the way, when there are a plurality of affiliated companies, group companies, subsidiaries, etc., it may be desired to aggregate and use the amount of oxygen dioxide emitted by each of these companies.

In this regard, Patent Document 1 only makes it possible to add up the amount of carbon dioxide emitted in one company having a plurality of bases, and carbon dioxide emitted by a plurality of different companies. It is not possible to aggregate the amount of carbon dioxide emissions.

The present disclosure is in view of this point, and an object thereof is to make it possible to aggregate the amount of carbon dioxide emitted by a plurality of different companies.

In order to achieve the above object, one aspect of the present disclosure can be premised on an automatic carbon dioxide emission totaling system that aggregates carbon dioxide emissions emitted by a plurality of different companies. The automatic carbon dioxide emission totaling system is a company that has registered in advance access to the usage input format screen and the screen generator that generates the usage input format screen that can input the electricity usage and gas usage. An access permission unit that enables only, a totaling unit that aggregates carbon dioxide emissions emitted by a plurality of the companies based on the power consumption and gas usage input on the usage input format screen, and the above. It is equipped with an output unit that outputs the carbon dioxide emissions aggregated by the aggregation unit.

According to this configuration, if there are multiple companies for which carbon dioxide emissions are to be aggregated, each company can access the usage input format screen and enter the power consumption and gas usage. It will be possible. Since the companies that can access the usage input format screen are limited to the companies registered in advance, the input power consumption and gas usage will not be widely disclosed. When the amount of electricity used and the amount of gas used are input, the totaling unit aggregates the carbon dioxide emissions emitted by a plurality of companies, and the aggregated result is output from the output unit.

In another aspect of the present disclosure, the aggregation unit may include a setting unit that can set the time when the aggregation starts. In this case, the totaling unit can automatically total the carbon dioxide emissions at the start of totaling set by the setting unit. As a result, the aggregated value of the carbon dioxide emission amount can be acquired without the user performing the aggregation start operation. Further, the administrator may be able to execute the aggregation process immediately.

The screen generator according to another aspect of the present disclosure may generate a usage input format screen configured to allow input of power consumption and gas usage for each month from January to December. Because it can be done, monthly carbon dioxide emissions can be obtained. Then, after acquiring the monthly carbon dioxide emissions, the carbon dioxide emissions for that year can be calculated by adding them together.

The screen generator according to another aspect of the present disclosure generates a coefficient input format screen capable of inputting a conversion coefficient for calculating carbon dioxide emissions by multiplying the power consumption amount or the gas usage amount. May be good. In this case, the tabulation unit can calculate the carbon dioxide emission amount by multiplying the power consumption amount or the gas usage amount by the conversion coefficient input to the coefficient input format screen. Since the access permission unit can access the coefficient input format screen only to a person having a pre-registered management authority, only the administrator can change the conversion coefficient, and carbon dioxide emissions are emitted. You can get the quantity accurately.

As described above, when a plurality of different companies input electricity consumption and gas consumption, respectively, the carbon dioxide emissions emitted by these companies can be automatically aggregated and output.

It is a figure which shows typically the example of totalizing the carbon dioxide emission amount using the automatic carbon dioxide emission amount totaling system which concerns on this embodiment. It is a figure explaining the schematic structure of the automatic totalization system of carbon dioxide emissions. It is a block diagram of an automatic aggregation system of carbon dioxide emissions. It is a flowchart explaining the example of the preparation procedure. It is a figure which shows the example of the company information registration screen. It is a figure which shows the example of the conversion coefficient registration screen. It is a figure which shows the example of the preparation screen of the usage input format. It is a flowchart explaining an example of a data input procedure. It is a figure which shows the example of the list screen. It is a figure which shows the example of the usage input format screen. It is a figure which shows the example of the confirmation screen. FIG. 9 is a diagram corresponding to FIG. 9 showing a state in which the power consumption amount and the gas usage amount for January 2020 are input. It is a figure which shows the example of the print preview display. It is a flowchart explaining the example of the aggregation processing.

Hereinafter, embodiments of the present invention will be described in detail with reference to the drawings. It should be noted that the following description of the preferred embodiment is essentially merely an example and is not intended to limit the present invention, its application or its use.

FIG. 1 shows carbon dioxide emitted by a plurality of different companies (Company A 111 to Company I 119) using the automatic carbon dioxide emission totaling system 1 (shown in FIG. 2) according to the embodiment of the present invention. It is a schematic diagram which shows the case of totaling the emission amount of. Company A 111 to Company 119 are group companies, affiliated companies, subsidiaries, etc. of the aggregation requesting company 100, and the aggregation of carbon dioxide emissions of Company A 111 to Company 119 is aggregated by the first aggregation company 101 and the second aggregation company. We are requesting 102 and the third aggregation company 103.

The first aggregation company 101 aggregates the carbon dioxide emissions of company A 111, company B 112, and company C 113 and sends them to the aggregation requesting company 100, and the second aggregation company 102 includes company D 114 and company E 115. The carbon dioxide emissions of company F 116 are aggregated and sent to the aggregation requesting company 100, and the third aggregation company 103 aggregates the carbon dioxide emissions of company G 117, company H 118, and company I 119 and the aggregation requesting company. Send to 100. In this example, the first aggregation company 101, the second aggregation company 102, and the third aggregation company 103 are set, but the number of aggregation companies may be one. Further, in this example, nine companies, Company A 111 to Company I 119, are set, but the number of these companies is not particularly limited. Further, in this example, carbon dioxide emission data is sent from three companies to one aggregation company, but the present invention is not limited to this, and one aggregation company can be sent from any number of two or more companies. Data on carbon dioxide emissions may be sent to.

For example, the first aggregation company 101 may be company A 111. That is, the company A 111 can receive the carbon dioxide emission data from the company B 112 and the company C 113 and send the data together with the carbon dioxide emissions of the company (company A 111) to the aggregation requesting company 100. Similarly, the second aggregation company 102 may be company D 114, and the third aggregation company 103 may be company G 117.

As shown in FIG. 2, the first aggregation company 101 has introduced an automatic aggregation system 1 for carbon dioxide emissions (hereinafter referred to as “automatic aggregation system 1”). The automatic aggregation system 1 includes, for example, a system main body 2, a server S, and a printer P. The system main body 2 is composed of, for example, a personal computer or the like, and includes a housing 3 incorporating an arithmetic unit or the like, a display unit 4, a keyboard 5, and a mouse 6. The housing 3 contains a communication unit 7 composed of a communication module or the like, a control unit 8 composed of an arithmetic unit or the like, and a storage unit 9 composed of a hard disk drive, a solid state drive or the like. .. The communication unit 7 is configured to be connectable to a network N such as the Internet. As the communication mode of the communication unit 7, it may be connected to the network N by wire or wirelessly. Further, the communication unit 7 may be configured to be connectable to a public communication line.

The storage unit 9 stores an operating system, various application programs, a program for constructing the automatic aggregation system 1, and the like. The application program also includes spreadsheet software and the like that have been well known in the past.

The control unit 8 is a unit that operates according to the program stored in the storage unit 9 and executes the processing, calculation, and the like described in each program. The control unit 8 includes a central processing unit (CPU), RAM, ROM, and the like. The specific operation of the control unit 8 will be described later, but the control unit 8 may generate, for example, generate various user interface screens, permit access to the automatic aggregation system 1, accept various settings and inputs, perform arithmetic processing, and output processing. Etc. are executed.

As shown in FIG. 3, the control unit 8 includes a screen generation unit 8a, an access permission unit 8b, a setting unit 8c, an aggregation unit 8d, and an output unit 8e. The screen generation unit 8a is a part that generates a user interface screen or the like. The access permission unit 8b is a part that allows only the administrator and the user to access the system 1 and prohibits others from accessing the system 1. The setting unit 8c is a part for performing various settings.

The screen generation unit 8a, the access permission unit 8b, the setting unit 8c, the aggregation unit 8d, and the output unit 8e may be configured by hardware or may be configured by a combination of hardware and software. The screen generation unit 8a, the access permission unit 8b, the setting unit 8c, the aggregation unit 8d, and the output unit 8e do not have to be physically separable. For example, when the CPU executes a program, each unit 8a to 8e It can also be configured to exert the function of.

The display unit 4 is composed of, for example, a liquid crystal display, an organic EL display, or the like. The display unit 4 is connected to the control unit 8 and is controlled by the control unit 8 to display various screens and user interface screens described later. The display unit 4 may include a display control unit that controls the display. The system main body 2 may be configured by a notebook personal computer in which the display unit 4 and the housing 3 are integrated.

The keyboard 5 and the mouse 6 are examples of operating devices that operate the system main body 2. The keyboard 5 and the mouse 6 are connected to the control unit 8, and the control unit 8 is configured to be able to detect the operation state of the keyboard 5 and the mouse 6. In addition to the keyboard 5 and the mouse 6, an operation device such as a touch operation panel may be provided.

The printer P is a device for printing the aggregation result or the like created by the system main body 2. The printer P is connected to the control unit 8, operates according to the print data output from the control unit 8, and prints the tabulation result on paper of a predetermined size. The printer P may be connected as needed, and the printer P is unnecessary when the aggregation result is saved only as data.

The server S is connected to the network N. Various data such as input values that are the basis of calculation of the aggregation result are stored in the server S, for example. The system main body 2 can access the server S via the network N to download various data stored in the server S and upload data on the system main body 2 side. All the data may be stored in the storage unit 9, and in this case, the server S is unnecessary.

The aggregation requesting company 100 also has a personal computer 100A similar to that of the first aggregation company 101, and the personal computer 100A is connected to the network N. Further, Company A 111, Company B 112, and Company C 113 also have personal computers 111A, 112A, and 113A similar to those of the first aggregation company 101, and these personal computers 111A, 112A, and 113A are connected to the network N, respectively. Has been done. Company D 114 to Company I 119 also have similar personal computers (not shown), and these personal computers are connected to the network N.

The aggregation requesting company 100, the first aggregation company 101, the second aggregation company 102, and the third aggregation company 103 use the automatic aggregation system 1 configured in the same manner. In the automatic aggregation system 1 used by the first aggregation company 101, only the data of companies A to C 111 to 113 are aggregated and transmitted to the automatic aggregation system 1 used by the aggregation requesting company 100. Further, in the automatic aggregation system 1 used by the second aggregation company 102, only the data of companies D to F 114 to 116 are aggregated and transmitted to the automatic aggregation system 1 used by the aggregation requesting company 100. Further, in the automatic totaling system 1 used by the third totaling company 103, only the data of companies G to I 117 to 119 are totaled and transmitted to the automatic totaling system 1 used by the totaling requesting company 100. In the automatic aggregation system 1 used by the aggregation requesting company 100, the data transmitted from the first aggregation company 101, the second aggregation company 102, and the third aggregation company 103 can be individually used, or aggregated and used. You can also do it.

(Various registrations)
FIG. 4 is a flowchart illustrating an example of a preparatory procedure for executing various registrations. This flow is performed at the time of introduction or before the introduction of the automatic aggregation system 1 to each company. The following steps can be executed only by a person (administrator) who has the management authority of the automatic aggregation system 1. For example, when the administrator logs in to the automatic aggregation system 1, the following steps can be executed after step SA1. Become. When logging in to the automatic counting system 1, the input of the administrator ID and password registered in advance is required. The access permission unit 8b of the control unit 8 determines whether or not the input ID and password are registered in advance, and if it is determined that the entered ID and password are registered in advance, the execution of step SA1 is permitted. do. The administrator ID and password can be stored in the server S or the like, and each time the administrator ID and password are input, the server S can be accessed and the above determination can be made. The login process may be executed as needed.

In step SA1, an application for executing the automatic aggregation system 1 is introduced. In this example, the application is introduced into the personal computer owned by the first tabulation company 101 shown in FIG. 2, and the automatic tabulation system 1 can be constructed in the first tabulation company 101. The application is also introduced in the aggregation requesting company 100, the second aggregation requesting company 102, the third aggregation requesting company 103, and the aggregation requesting company 100 shown in FIG. It is configured so that all companies can access the common server S.

In step SA2, information (company information) of a company that aggregates carbon dioxide emissions using the automatic aggregation system 1 is registered in the automatic aggregation system 1. In step SA2, first, the screen generation unit 8a shown in FIG. 3 generates a company information registration screen 200 as shown in FIG. 5, and displays it on the display unit 4. The company information registration screen 200 is a so-called user interface.

The company information registration screen 200 is provided with a save button 200a, an add button 200b, and the like. The save button 200a is a button for saving and registering the company information together with the data, and the add button 200b is a button operated when newly registering the company information. The save button 200a and the add button 200b can be pressed by operating the keyboard 5 or the mouse 6. Since the save button 200a and the add button 200b are not physical buttons, the save button 200a and the add button 200b themselves do not move even if a push operation is performed, but the control unit 8 operates the keyboard 5 and the mouse 6. By detecting, it is possible to detect which button was operated and when. This method has been well known in the past.

On the company information registration screen 200, it is possible to input the company number, the reading of the company name, and the company name. In this example, the company information of three companies, A (company number 1), B (company number 2), and C (company number 3), is entered, but if necessary, company D and company E are entered. You may enter company information such as a company. To add company information, the add button 200b may be operated. Further, the company information may include information such as an address in addition to the reading and the company name. The administrator presses the save button 200a when the input of the company information is completed. As a result, the company number, the frigana of the company name, and the company name are stored in the storage unit 9, the server S, or the like in an associated state.

After storing the company information in step SA2, the process proceeds to step SA3, and the conversion coefficient is registered in the automatic aggregation system 1. In step SA3, first, the screen generation unit 8a shown in FIG. 3 generates a conversion coefficient registration screen (coefficient input format screen) 210 as shown in FIG. 6, and displays it on the display unit 4. Similar to the company information registration screen 200, the conversion coefficient registration screen 210 is also provided with a save button 210a, an addition button 210b, and the like.

The type number, type, conversion coefficient, and unit can be input on the conversion coefficient registration screen 210. Since the automatic aggregation system 1 according to this example is a system that individually aggregates carbon dioxide emissions due to the use of electric power and carbon dioxide emissions due to the use of gas, the types are "electric power" and "gas". There are two types. Let "electric power" be the type number "1" and "gas" be the type number "2". Enter the conversion coefficient and unit of "electric power", and also enter the conversion coefficient and unit of "gas". The conversion coefficient of electric power is a conversion coefficient for calculating carbon dioxide emissions by multiplying the amount of electric power used. The gas conversion coefficient is a conversion coefficient for calculating carbon dioxide emissions by multiplying the amount of gas used. The unit of electric power is "KWh" and the unit of gas is "kg". The administrator presses the save button 210a when the input of the conversion coefficient and the information (unit, etc.) related to the conversion coefficient is completed. As a result, the conversion coefficient, the unit, and the type are stored in the storage unit 9, the server S, or the like in a state of being associated with each other. It should be noted that only the amount of electric power used and only the amount of gas used may be totaled.

After storing the conversion coefficient and the information related to the conversion coefficient in step SA3, the process proceeds to step SA4 to prepare for creating the usage amount input format. The usage amount input format is a format in which the power consumption amount and the gas usage amount can be input for each company, and is the basis for generating the usage amount input format screen described later.

In step SA4, first, the screen generation unit 8a shown in FIG. 3 generates a preparation screen 220 as shown in FIG. 7, and displays it on the display unit 4. The preparation screen 220 shows the year, month, company name frigana, company name, power consumption, power unit, power conversion coefficient, carbon dioxide emission amount due to used power, gas usage, gas unit, gas conversion. It is possible to input the coefficient, carbon dioxide emissions from the gas used, total carbon dioxide emissions, etc. In this example, it is possible to input the amount of electricity used and the amount of gas used for each month from January to December. For example, in 2020, 12 from December 2020 to January 2020. It is a usage amount input format for company A equipped with an input field of. The usage amount input format for company B and the usage amount input format for company C are prepared in the same manner. The prepared usage amount input format is stored in the storage unit 9, the server S, or the like by performing a save operation by the administrator. The above is an example of the preparation procedure for executing various registrations.

(Data entry)
Next, a data input procedure will be described based on the flowchart shown in FIG. In step SB1 after the start, the login process is executed. The login process is a process for a user to log in to the automatic totaling system 1 after the automatic totaling system 1 is started, and a person who intends to log in uses a previously issued ID and password, a keyboard 5, etc. Enter using. The access permission unit 8b of the control unit 8 determines whether or not the input ID and password are registered in advance, and if it is determined that the entered ID and password are registered in advance, the login of the automatic aggregation system 1 is performed. That is, the use of the automatic aggregation system 1 is permitted, and the process proceeds to the subsequent steps. If the entered ID and password are not registered in advance, the use of the automatic aggregation system 1 is prohibited and the subsequent steps cannot be proceeded. The ID and password issued in advance can be stored in the server S or the like, and the server S can be accessed and the above determination can be made each time the ID and password are input. The login process may be executed as needed. The user may be the above-mentioned administrator or an input person determined for each company.

After the login process is completed, the process proceeds to step SB2. In step SB2, the screen generation unit 8a generates a list screen 230 as shown in FIG. 9, and displays it on the display unit 4. On the list screen 230, various information input in the above preparation procedure is downloaded from the server S and reflected, and the input data for December from December 2020 to January 2020 can be displayed in a list format. It has become. The list screen 230 can be displayed by, for example, a Web browser, and by registering an address corresponding to the list screen 230, the list screen 230 can be easily displayed from the next time onward.

At the left end of the list screen 230, a selection button 230a is provided for each month. When the user operates the selection button 230a corresponding to the month to be input, the process proceeds to step SB3, and the screen generation unit 8a generates the usage amount input format screen 240 as shown in FIG. 10 and displays it on the display unit 4. Access (input operation) to this usage amount input format screen 240 is possible only for those who are permitted by the access permission unit 8b, that is, only the pre-registered company, so another company mistakenly inputs it. It will not be lost, and the input contents will not be seen by other companies.

The usage amount input format screen 240 is configured so that the power consumption amount and the gas usage amount can be input. That is, on the usage input format screen 240, the year display area 240a in which the selected year is displayed, the monthly display area 240b in which the selected month is displayed, the company name display area 240c, and the power consumption are displayed. A power consumption input area 240d for inputting and a gas usage input area 240e for inputting a gas usage amount are provided. The corresponding items are downloaded from the server S and automatically displayed in the year display area 240a, the monthly display area 240b, and the company name display area 240c. The user inputs actual values in the power consumption input area 240d and the gas usage input area 240e, respectively. For example, in the case of the usage amount input format screen 240 for January 2020, the power usage amount for January 2020 is input to the power consumption amount input area 240d, and the gas usage amount for January 2020 is input to the gas usage amount input area 240e. Enter in.

When the user performs a predetermined input completion operation, the process proceeds to step SB4, and the screen generation unit 8a generates a confirmation screen 250 as shown in FIG. 11 and displays it on the display unit 4. The confirmation screen 250 displays the power consumption amount and the gas usage amount input on the usage amount input format screen 240, and the user can confirm whether or not the input value is correct by looking at the confirmation screen 250. When the back button 250a is operated, the screen returns to the usage amount input format screen 240 shown in FIG. 10 and the input value can be corrected. On the other hand, when the input button 250b of the confirmation screen 250 shown in FIG. 11 is operated, as shown in FIG. 12, the power consumption amount and the gas usage amount for January 2020 on the list screen 230 are input. Then, the saving process is executed in step SB5, and the input value is stored in the storage unit 9 or the server S.

When the power consumption amount and the gas usage amount are input, the process proceeds to step SB6. In step SB6, the aggregation unit 8d calculates the carbon dioxide emission amount due to the use of electric power by multiplying the electric power consumption by the electric power conversion coefficient, and also multiplies the gas usage amount by the gas conversion coefficient to use gas. Calculate the carbon dioxide emissions due to the above. Then, the totaling unit 8d calculates the total carbon dioxide emission amount for January 2020 by adding up the carbon dioxide emission amount due to the use of electric power and the carbon dioxide emission amount due to the use of gas. These calculated values are displayed on the list screen 230.

The above has described the case where the company A 111 inputs the amount for a single month, but the amount of electricity used and the amount of gas used can be input in the same manner every month. Further, the company B 112 and the company C 113 can also input the power consumption amount and the gas usage amount in the same manner.

FIG. 13 is a diagram showing an example of a print preview display of the amount of electricity used and the amount of gas used by Company A alone. When the user operates the print preview button (not shown) after inputting the power consumption amount and the gas usage amount, the output unit 8e generates the print preview screen 260 as shown in FIG. 13 (step SB7). The input power consumption amount and gas usage amount are reflected on the print preview screen 260. It is also possible to print the print preview screen 260 as it is, or to output it in a predetermined data format.

(Aggregation and reporting)
As described above, the power consumption amount and the gas usage amount of the company A 111, the company B 112, and the company C 113 are input monthly. The totaling unit 8d is the carbon dioxide emission amount emitted by a plurality of companies (A company 111, B company 112 and C company 113) based on the electric power consumption and the gas usage amount input to the usage amount input format screen 240. To aggregate.

Prior to the aggregation, the setting unit 8c sets the aggregation start time when the aggregation unit 8d starts the aggregation in step SC1 of the flowchart shown in FIG. That is, it may be before or after the input of the power consumption amount and the gas usage amount, but the administrator logs in to the automatic totaling system 1 and inputs the date, time, etc. by the keyboard 5 or the like. do. The setting unit 8c sets the start time of aggregation based on the input date, time, and the like. The start of aggregation can be set, for example, 12:00 on weekdays, every Monday, the first day of every month, the last day of each month, and the like. The totaling unit 8d is configured to automatically total the carbon dioxide emissions at the start of totaling set by the setting unit 8c. The administrator can immediately execute the aggregation without waiting for the start of aggregation.

In step SC2, the user who executes the aggregation process selects the year. If you want to total the usage amount in 2020, select 2020. Then, the process proceeds to step SC3, and the aggregation unit 8d aggregates the carbon dioxide emissions of Company A 111 based on the amount of electricity used from January to December 2020, and also calculates the amount of carbon dioxide emissions based on the amount of gas used. Tally. For Company B 112 and Company C 113, the amount of carbon dioxide emissions based on the amount of electricity used from January to December 2020 will be totaled, and the amount of carbon dioxide emissions based on the amount of gas used will be totaled. Then, the carbon dioxide emission amount based on the electric power consumption amount of the company A 111 and the carbon dioxide emission amount based on the gas consumption amount are added up, and the carbon dioxide emission amount of the company B 112 and the company C 113 are also added up in the same manner. Further, the total carbon dioxide emissions of company A 111, the total carbon dioxide emissions of company B 112, and the total carbon dioxide emissions of company C 113 are added up. This can be performed by the automatic tabulation system 1 of the first tabulation company 101 in FIG.

After step SC3, the output unit 8e generates a print preview screen capable of printing the power consumption, gas usage, and carbon dioxide emissions of company A 111, company B 112, and company C 113 in a list format, and the display unit 4 Can be displayed in. It is also possible to print the print preview screen as it is, or to output it in a predetermined data format.

In step SC4, similarly, the automatic aggregation system 1 of the second aggregation company 102 has the total carbon dioxide emissions of company D 114, the total carbon dioxide emissions of company E 115, and the total carbon dioxide emissions of company F 116. In addition, the automatic aggregation system 1 of the third aggregation company 103 includes the total carbon dioxide emissions of company G 117, the total carbon dioxide emissions of company H 118, and the total carbon dioxide emissions of company I 119. To add up.

At the aggregation requesting company 100, the user launches the automatic aggregation system 1 and logs in. In the server S of the automatic aggregation system 1, the aggregation result by the first aggregation company 101, the aggregation result by the second aggregation company 102, and the aggregation result by the third aggregation company 103 are input in advance. When the user executes the totaling process in step SC5, the totaling result by the first totaling company 101, the totaling result by the second totaling company 102, and the totaling result by the third totaling company 103 are totaled. For example, the total carbon dioxide emissions included in the aggregation result by the first aggregation company 101, the total carbon dioxide emissions included in the aggregation result by the second aggregation company 102, and the total carbon dioxide emissions included in the aggregation result by the third aggregation company 103. By adding up the carbon dioxide emissions, the total carbon dioxide emissions of Company A 111 to Company I 119 can be obtained. This summing process is executed by the aggregation unit 8d. The output unit 8e outputs the carbon dioxide emissions aggregated by the aggregation unit 8d. Similarly, the total value of electricity consumption, the total value of gas consumption, the total value of carbon dioxide emissions based on power consumption, the total value of carbon dioxide emissions based on gas consumption, etc. are output. You can also do it.

The output unit 8e can display each value added up in the totaling process on the display unit 4 as a print preview screen. It is also possible to print the print preview screen as it is, or to output it in a predetermined data format.

(Action and effect of the embodiment)
As described above, according to the present embodiment, when there are a plurality of companies such as A company 111 to I company 1119, each company inputs the usage amount. It becomes possible to access the format screen 240 and input the power consumption amount and the gas usage amount. Since the companies that can access the usage amount input format screen 240 are limited to the companies registered in advance, the input power consumption amount and gas usage amount are not widely disclosed. Further, for example, since the usage amount input format screen 240 dedicated to the company A is prepared in the company A 111, the company A 111 does not mistakenly input the usage amount input format screen of the company B 112.

When each company of company A 111 to company I 1119 inputs the amount of electricity used and the amount of gas used, the totaling unit 8d totals the amount of carbon dioxide emitted by these companies. Then, since the aggregated result is output from the output unit 8e, the aggregation requesting company 100 can easily acquire the aggregation result.

The above embodiments are merely exemplary in all respects and should not be construed in a limited way. Furthermore, all modifications and changes that belong to the equivalent scope of the utility model registration claims are within the scope of the present invention.

As described above, the carbon dioxide emission amount automatic aggregation system according to the present invention can be used, for example, when the carbon dioxide emission amount emitted from a plurality of companies having factories, workshops, etc. is automatically aggregated.

1 Automatic totaling system for carbon dioxide emissions 8a Screen generation unit 8b Access permission unit 8c Setting unit 8d Totaling unit 8e Output unit

Claims (5)

In an automatic carbon dioxide emission totaling system that aggregates carbon dioxide emissions from multiple different companies
A screen generator that generates a usage input format screen that allows you to input power usage and gas usage,
An access permission unit that allows access to the usage input format screen only for pre-registered companies,
A totaling unit that aggregates carbon dioxide emissions emitted by a plurality of the companies based on the power consumption and gas usage input on the usage input format screen, and a totaling unit.
An automatic carbon dioxide emission totaling system including an output unit that outputs the carbon dioxide emissions aggregated by the totalization unit. In the automatic aggregation system for carbon dioxide emissions according to claim 1,
It is equipped with a setting unit that can set the start time of aggregation when the aggregation unit starts aggregation.
The totaling unit is an automatic totaling system for carbon dioxide emissions, which automatically totals carbon dioxide emissions at the start of totaling set by the setting unit. In the automatic aggregation system for carbon dioxide emissions according to claim 1,
The screen generator automatically totals carbon dioxide emissions to generate the usage input format screen configured to allow input of power consumption and gas usage for each month from January to December. system. In the automatic aggregation system for carbon dioxide emissions according to claim 1,
The screen generation unit generates a coefficient input format screen capable of inputting a conversion coefficient for calculating carbon dioxide emissions by multiplying the power consumption amount or the gas usage amount.
The aggregation unit is an automatic aggregation system for carbon dioxide emissions, which calculates carbon dioxide emissions by multiplying the power consumption amount or the gas usage amount by the conversion coefficient input to the coefficient input format screen. In the automatic aggregation system for carbon dioxide emissions according to claim 4,
The access permission unit is an automatic calculation system for carbon dioxide emissions that enables access to the coefficient input format screen only by a person having a pre-registered management authority.

Images