METHOD AND SYSTEM FOR PRODUCING A GLOBAL MULTILAYER CARTOGRAPHIC DATA BASE

Abstract

A method and system for producing a global multilayer cartographic database enabling the production of maps and, more particularly, to the production of maps containing topographic, altimetric, vegetation cover, soil nature and subsidence information. through a collaborative process of using remote sensing systems carried by drones (DBSS), where information collected during individual surveys is incorporated into a global multilayer cartographic database, whose information is made available to amateur and professional parties. The system includes, in addition to the global multilayer cartographic database (BCGMC), an applications databank, a production infrastructure, an intermediation system service and a database of accredited operators

Claims

1-9. (canceled)

10. A method for creating a global multilayer cartographic database that allows the production of maps containing one or more information of the group comprising topographic and altimetric information, vegetation height, the nature of the soil and the ground subsidence comprising incorporation, to a dynamically updated global multi-layer cartographic basis (BCGMC), of information collected during individual surveys, wherein said surveys comprise the following steps: request made by the public (CCL), for the collection of cartographic data sent to the intermediation of services; consultation made to the DBSS operator, of the availability of qualified operators in the concerned region; survey carried out by BDSS; transfer of the information collected by the DBSS to the intermediation of services; forwarding of the information to requesting party and charging fee if applicable; payment of part of the fee to operator; forwarding of said information to cartographic information management to be included in global multilayer cartographic database (BCGMC), wherein the collaborative use of said information comprises: providing apps developed by suppliers, application developers or customers; including said apps into an app databank.

11. A method as claimed in claim 10, wherein tracking of changes over time of the topographic, altimetric, vegetation cover, soil nature and subsidence information is provided by the cumulative addition of said information to the global multilayer cartographic database (BCGMC).

12. A method as claimed in claim 10, wherein registration of qualified operators comprises a technical evaluation comprising the knowledge of DBSS, of the app's, as well as the performance of said operators on previous jobs.

13. A system for creating a global multilayer cartographic database, comprising: a global multilayer cartographic database (BCGMC) in which there are cumulatively stored and updated the information collected by remote sensing systems carried by drones (DBSS); a continuously updated applications databank; a databank of accredited operators.

14. A system as claimed in claim 13, wherein said remote sensing systems (DBSS) comprise a radar and a multi-band camera.

15. A system as claimed in claim 13, wherein it is composed of two blocks, comprising: the supplier/integrator block (FPS), in charge of production, marketing and use of the database and of the global multilayer cartographic database, comprising the app's manager, the DBSS manager, the intermediation of services and the cartographic information management; the clients block (CCL), comprising the app developers, the DBSS operator, the professional users which pay for the complete cartographic information (ICLC) and the amateur users which access the incomplete cartographic information (ICGI).

Description

BRIEF DESCRIPTION OF THE DRAWINGS

[0021] Further features and advantages of the invention will be better understood by the description of an exemplary non-limiting embodiment and the figures that refer to it, in which:

[0022] FIG. 1 is a section view of the ground showing several layers that can be determined by means of the invention.

[0023] FIG. 2 is a general view of the system of the invention.

[0024] FIG. 3 is a second view of the system showing the information flows between its elements.

[0025] FIG. 4 is a diagram view of the creation of the databases employed in the invention.

[0026] FIG. 5 is a flowchart that shows the routing to the database of the data collected by the UAV.

[0027] FIG. 6 is a flowchart showing the consultation routine to the global multilayer cartographic database.

[0028] FIG. 7 shows how a new application is added to three SW database.

[0029] FIG. 8 shows how a new application is bought sand is transferred to a client.

[0030] FIG. 9 shows how an operator is registered in the accredited operators databank.

[0031] FIG. 10 shows the search routine in the UAV operators databank in order to select the best qualified one for the job.

DETAILED DESCRIPTION OF THE INVENTION

[0032] As shown in FIG. 1, the important features of the terrain include, in addition to surface data, other key aspects for certain applications. In this figure, the following layers are shown: [0033] layer A is the image of the surface, such as seen by cameras on board satellites; [0034] layer B shows the height of the vegetation cover; [0035] layer C shows the image and height of the soil with or without vegetation; [0036] layer D is a tomography of the surface layer of the soil; [0037] layer E shows the ground subsidence; [0038] layer T refers to the dates of the surveys carried out by the UAV.

[0039] The information obtained through each survey is stored in the global multi-layer cartographic database and can be retrieved by the interested party, allowing to verify the evolution of the abovementioned terrain features in the area of interest.

[0040] The instant invention's main concept comprises the surveying carried out by a plurality of UAV's furnished with remote sensing meajs, operating in collaboration, forwarding the data collected in cartographic surveys to a centralized database, said data being processed in order to generate a global cartographic database. Said database is dynamically updated upon the receipt of new information.

[0041] The equipment used, designated as DBSS (remote sensing system transported by drone) comprises a drone capable of carrying a radar and a multi-band camera, as well as real-time processing means of the collected information and is intended to fly at low height, such as 120 m above the ground, so that it can be operated by non-technical users and without any specific license.

[0042] As shown in FIG. 3, the system comprises two blocks, the supplier/integrator block (FPS) and the customer block (CCL). The supplier/integrator block—which is responsible for the resources needed for the production, marketing and use of the global multi-layer database and cartographic database—comprises:

[0043] application program manager 11 comprising an asset that is an own application program databank or broker for client-developed app's (APP), which are application programs related to the use of drones for various applications, such as: agriculture, mining, reforestation, environment. They can be developed by the supplier/integrator, one or more application developer 14 or by a customer and made available to other interested parties either freely or by payment of a fee;

[0044] UAV manager 18 comprising engineering and production infrastructure data of UAV's as an asset and storage means of performance information and UAV availability;

[0045] Intermediation of services 22 comprising an asset that is the accredited operators database, allowing the location and hiring of service providers that use UAV's. The accreditation is carried out according to the flowchart of FIG. 9 in the supplier/integrator block FPS by a computer system connected to the Internet, through evaluation of the operator's assets: knowledge of UAV characteristics, knowledge of the app's, the training undergone by the operator and the grade obtained, as well as the degree of performance in meeting the requests for surveys made by the professional parties 25, if any;

[0046] Cartographic information management 28 comprising an asset consisting of the global multilayer cartographic base (BCGMC) where the information obtained through the UAV's is stored. Two kinds of public access to BCGMC information are available: [0047] the first, Complete Local Cartographic Information (ICLC), is only accessible via the Internet through payment of a fee, providing the information from layers A to E and T, and can be imported by any Geographic Information System, GIS; [0048] the second, Global Incomplete Cartographic Information (ICGI), is available free of charge on the Internet, and the public, amateur or professional, has access only to the visualization of the information, but there is no way to obtain the vectors, attributes or other structured information.

[0049] The clients block (CCL) comprises the following:

[0050] app developers 14, who develop applications to extend the functionality and capabilities of UAV's. When answering a request from the application manager 11, the interaction with the system is shown in the flowchart of FIG. 7. Should the app been developed independently of such a request, the inclusion into the system takes place as shown in FIG. 8. The provision of the app may be through payment or free of charge;

[0051] UAV operator 15, can use its own UAV or provide services as a UAV user furnished by third parties. Each time a UAV is used, the collected data are processed and automatically sent to BCGMC 28 ensuring the collaborative nature of the cartographic database creation;

[0052] Professional users 25 are the ones that require complete cartographic information and pays to obtain such information;

[0053] Amateur users 23 who have partial access to cartographic information for inspection.

[0054] Still referring to FIG. 3, the system components interact as described below:

[0055] Communication 12 corresponds to the request for development of an app by developer 14 according to specifications provided by app management;

[0056] Flow 13 corresponds to the furnishing of the app produced by the developer for the app management 11. According to the flowchart of FIG. 7 this application is then subjected to a quality control, in order to verify that it meets operational requirements; if this does not occur, said management forwards to the developer a report pointing out what improvements are needed;

[0057] Flow 16 indicates the request made by an operator 15 for an existing app in databank 11, the furnishing of said app being performed as shown by 17.

[0058] The sequence of steps involved in a survey begins with a request 26 for the collection of cartographic data sent to the intermediation of services 22;

[0059] In turn, the intermediation of services 22 verifies the availability, flow 24, of one or more qualified operators in the concerned region;

[0060] In turn, operator 15 returns the information collected by the DBSS, flow 23, to the intermediation of services 22, which, in turn, sends this information (ICLC) to the requester, flow 27, which is also charged for the service. Part of that fee shall be passed on to the operator 15;

[0061] At the same time, cartographic information management 28 is fed with the same data (ICLC), flow 31, which are incorporated into the global multi-layer cartographic base (BCGMC);

[0062] In turn, operator is paid for his/her work, flow 32;

[0063] Amateur users 33 can also request 35 access to BCGMC information, receiving the paid ICLC information or the free ICGI information, according to flow 34.