METHOD FOR MEASURING WEEKLY AND ANNUAL EMISSIONS OF A GREENHOUSE GAS OVER A GIVEN SURFACE AREA

• US 20130179078A1
• Filed: 11/25/2010
• Published: 07/11/2013
• Est. Priority Date: 11/26/2009
• Status: Abandoned Application

• Current Assignee: Tanguy Griffon
• Original Assignee: Tanguy Griffon
• Inventors: Griffon, Tanguy
• Application Number:
  US13/512,136
• Publication Number:
  US 20130179078A1
• Time in Patent Office: Days
• US Class Current: 702/3
• CPC Class Codes: G01W 1/10 Devices for predicting weather conditions computers per se G06; display devices G09
• CPC Class Codes: G06F 30/20 Design optimisation, verification or simulation optimisation, verification or simulation of circuit designs G06F30/30
• CPC Class Codes: G06Q 50/26 Government or public services business processes related to the transportation industry G06Q50/40
• CPC Class Codes: Y02P 90/845 Inventory and reporting systems for greenhouse gases [GHG]

Abstract

Method for measuring weekly and annual emissions of a greenhouse gas generated over a determined geographical area and measuring system implementing the method.

Claims

1. Method for measuring weekly and annual emissions of a greenhouse gas generated over a determined geographical area, wherein it includes the following steps:

perform daily concentration measurements of said greenhouse gas in a first plurality of locations distributed on the entire terrestrial globe and save said daily concentration measurements in an observation module,

perform daily flux measurements of said greenhouse gas in a second plurality of locations distributed on the entire globe, and save the said daily flux measurements in said observation module,

perform measurements of satellite parameters, meteorological parameters, marine parameters and ecosystem parameters in a third plurality of locations distributed on the terrestrial globe and save said parameter measurements in the said observation module,

extract, by means of an extraction module, the weather forecast data from at least one data source,

perform a flux evolution modeling of the said gas on the globe by means of an exchange module modeling the natural and anthropogenic sources and sinks,

perform a weekly anthropogenic emissions modeling of said greenhouse gas by means of an ascending inventories module, said module integrating the raw data of emissions for a plurality of facilities,

perform, using said flux evolution modeling, said weekly anthropogenic emissions modeling, and said weather forecast data, an atmospheric transport modeling of the said greenhouse gas by means of a transport module,

calculate the final fluxes of said greenhouse gas, by means of a data inversion and assimilation module using said fluxes modeling performed by the exchange module, said weekly anthropogenic emissions modeling performed by the ascending inventories module, said atmospheric transport modeling performed by the transport module and said measurements saved in said observation module,

weight, by means of a weighting module, the said final fluxes so as to provide final weighted fluxes,

calculate, using said final weighted fluxes and said weekly anthropogenic emissions modeling performed by the ascending inventories module, the weekly emissions of said greenhouse gas of said geographical area, by means of a geocoding module comprising at least one geographic information system,

extrapolate, from said weekly emissions, the annual emissions of said greenhouse gas of the said geographical area.

2. Method for measuring according to claim 1, wherein the surface of the said geographical area is between 1 km2 and 10,000 km2, in particular that said geographical area includes at least one given anthropogenic source.

3. Method for measuring according to claim 1, wherein said greenhouse gas is selected from the group consisting of:

carbon dioxide (CO2), methane (CH4), nitrous oxide (N2O), nitrogen oxides (NOx), hydrofluorocarbons (HFC), hydrochlorofluorocarbons (HCFC), chlorofluorocarbons (CFC), perfluorocarbons (PFC), sulfur hexafluoride (SF6), ozone (O3), water vapor (H2O), carbon monoxide (CO) and dihydrogen (H2).

4. Method for measuring according to claim 1, wherein said daily concentration measurements of said greenhouse gas on the globe, said daily flux measurements of the said greenhouse gas on the globe, said measurements of satellite parameters, meteorological parameters, marine parameters and ecosystem parameters are performed by means of a plurality of satellites, aircraft, atmospheric measurement stations, marine measurement stations, ships and/or ecosystem measurement stations enabling one to perform measurements on the entire globe.

5. Method for measuring according to claim 1, wherein said exchange module performs said flux evolution modeling of the said greenhouse gas, from the Holocene, using a solar module modeling the solar radiation using the orbital parameters of the terrestrial geometry with a calculation of the eccentricity of the Earth determined proportionally to the eccentricity of Mars.

6. Method for measuring according to claim 1, wherein said exchange module performs said flux evolution modeling of said greenhouse gas, from the Holocene, using an energy module modeling the shortwave radiation, by including reflectivity, absorptivity and transmissivity of the atmosphere, absorption by the greenhouse gases and clouds, variations of planetary albedo and influence of the ozone layer hole, the said energy module modeling also the longwave radiation, using the Schwartzschild equation, the method of the emissivities and including the absorption and emission by the greenhouse gases and the clouds of longwave radiation, latent heat fluxes, sensible heat fluxes, conduction fluxes and surface temperature.

7. Method for measuring according to claim 1, wherein said exchange module performs said flux evolution modeling of said greenhouse gas, from the Holocene, using an ocean module modeling the net effect of atmosphere-ocean exchanges on the basis of the MOM3 model combined with said weather forecast data and taking into account the buffer effect, the absorption by chemical weathering following the CDIAC DB1012 model and the release by evaporation.

8. Method for measuring according to claim 1, wherein said exchange module performs the flux evolution modeling of said greenhouse gas, from the Holocene, using a biosphere module modeling the net effect of atmosphere-biosphere exchanges on the basis of the JSBACH model and including the plant types of the biosphere, the leaf area index, the light, the albedo, the C3 and C4 photosynthesis, the addition of the limited gross photosynthetic rate, autotrophic respiration, heterotrophic respiration and/or anthropogenic modification of the land cover since at least the last millennium.

9. Method for measuring according to claim 8, wherein said biosphere module uses a fire module modeling the disturbances due to fires on the basis of the data extracted from the Global Fire Emission Database (GFEDv2) integrated in the JSBACH model.

10. Method for measuring according to claim 1, wherein said exchange module performs said flux evolution modeling of said greenhouse gas, from the Holocene, using a fossil module modeling the fossil anthropogenic emissions on a global scale on the basis of the oil and coal production statistics of the Energy Information Administration (EIA) and the estimates of Etemad et al.

11. Method for measuring according to claim 1, wherein said ascending inventories module extracts emission inventories from the EDGAR 4.0 database and includes a calculation of the temporal variability of emissions.

12. Method for measuring according to claim 1, wherein the said atmospheric transport module uses the TM5 transport model combined with said weather forecast data to calculate the flux atmospheric transport of said greenhouse gas on the globe.

13. Method for measuring according to claim 1, wherein said data inversion and assimilation module uses, to calculate said final fluxes, a synthesis inversion with the Green function for the large regions and the ensemble Kalman filter.

14. Method for measuring according to claim 1, wherein said weighting module uses, to weight the said final fluxes, an analysis of the production activities of countries and regions of the world together with a modeling of emission markets based on the model of privately produced public goods.

15. Method for measuring according to claim 1, wherein said geocoding module uses correcting coefficients.

16. Measuring system for implementing the method according to claim 1 comprising

means for measuring (801) concentrations and fluxes of greenhouse gases,

means for measuring (801) satellite, meteorological, marine and ecosystem parameters,

at least one centralized database (803) comprising an observation module,

means for extracting (802) and transferring automated data,

means for calculating (805) comprising at least one exchange module, at least one ascending inventories module, at least one transport module, at least one data inversion and assimilation module, and at least one weighting module,

at least one geocoding module (804) comprising a geographic information system enabling one to geocode the results provided by the said means for calculating,

one centralized Internet platform enabling one to view and analyze the greenhouse gas emissions of a plurality of given geographical areas.

17. Measuring system according to claim 16, wherein it comprises means for interfacing (808) with a production management system of a facility.