AUTONOMOUS SYSTEM AND METHOD FOR PRODUCING AND / OR STORING AT LEAST ONE ENERGY SOURCE

Abstract

The invention relates to a system (1) and an autonomous method (200) for producing and / or storing at least one energy (2) for an installation (3), comprising: - at least one IT infrastructure (11) comprising - at least one control module (12), - at least one security module (13), - at least one storage module (14), - at least one correction module (15), - at least one energy production device (4) configured to be coupled with the at least one IT infrastructure (11), and the installation (3) and comprising: - at least one transformer (41), - at least one first reactor (42), - at least one second reactor (43), - the at least one first reactor (42) is configured to be powered by the at least one second reactor (43) - at least one storage device (20) configured to be coupled with the at least one IT infrastructure (11) and the installation (3). Figure to be published with the abstract: figure 1

Description

Title of the invention: AUTONOMOUS SYSTEM AND METHOD FOR THE PRODUCTION AND / OR STORAGE OF AT LEAST ONE ENERGY Technical field

[0001] The invention relates to the field of energy production and storage. In particular, it relates to an autonomous system for producing and / or storing at least one energy.

[0002] The invention further relates to an autonomous method for producing and / or storing at least one energy. The invention also relates to the use of at least one energy and to the autonomous system for producing and / or storing at least one energy. Prior art

[0003] Below we describe the known prior art from which the invention was developed.

[0004] Carbon dioxide (CO2) is considered responsible for 81% of greenhouse gas or "GHG" emissions in Europe according to data published by the French government's General Commission for Sustainable Development in "Key Climate Figures France, Europe and the World" 2022 edition. The main greenhouse gas, and partly responsible for global warming, carbon dioxide is, for example, released through gaseous effluents, such as industrial gaseous effluents, particularly when fossil fuels are burned to provide electricity and heat. These industrial processes include, for example, fossil fuel power generation facilities, natural gas processing facilities, refineries, petrochemical production plants, cement plants and fossil fuel-based hydrogen production plants.Methane is another greenhouse gas also released by many of these industrial processes and has a global warming potential almost 30 times greater than that of CO2. The increase in the atmospheric concentration of GHGs due to anthropogenic emissions increases the emission of energy to the ground, leading to an imbalance in the Earth's energy balance and causing its surface temperature to rise. Thus, preventing the emission of GHGs such as CO2 or methane is a key societal issue.

[0005] In particular, domestic energy for installations contributes greatly to the emission of these greenhouse gases. Indeed, this energy can come from different sources, in particular fossil fuels, nuclear energy and in smaller share of renewable energy sources. For example, according to the International Energy Agency (IEA), household energy use is responsible for 8% of global greenhouse gas emissions, and renewable energy accounted for only 11% of household energy consumption in 2019, with an annual growth of 6%.

[0006] Thus, optimizing domestic energy production is essential to promote the ecological transition.

[0007] Furthermore, the efficient management of domestic energy is proving increasingly worrying for users in view of the scarcity of resources but also to reduce energy consumption, reduce costs related to energy consumption and contribute to the fight against global warming, particularly linked to GHGs. Consequently, the transition to more responsible and more efficient energy consumption is essential to reduce environmental impact.

[0008] Several governments and agencies have implemented various measures to encourage the ecological transition at the domestic level. For example, the German government adopted a law on the reduction of greenhouse gas emissions at the housing level, the French government presented its Climate and Resilience bill, Canada announced the EcoENERGY program for homes, Japan adopted a new renewable energy law, which includes a target of 36-38% renewable electricity in the country's energy mix by 2030. Finally, the USA plans a plan to reduce GHGs by 50% by 2030 compared to 2005, which includes measures to encourage the energy efficiency of buildings, or the European Union with its “Fit for 55” plan aimed at reducing the EU's greenhouse gas emissions by 55% by 2030, including the domestic energy transition.

[0009] Thus, several avenues have been explored to reduce GHG emissions and improve domestic energy management.

[0010] For example, according to the International Energy Agency, installing solar panels on roofs can reduce electricity consumption by 10 to 70% depending on the region. However, this solution remains expensive and uncertain. Wind turbines can also be used to produce domestic energy, but they are not yet suitable for large-scale domestic energy (for example, across an entire territory).

[0011] However, not all technologies are suitable for large-scale home implementation and end-user friendly.

[0012] Furthermore, according to the Environmental Protection Agency, 30% of energy is wasted in buildings. Therefore, it is more than necessary to analyze and track energy consumption to identify inefficiencies and reveal opportunities. optimization.

[0013] Energy management systems have emerged on the market. Unfortunately, these systems alert the user about their consumption without influencing energy production or storage, not to mention the losses that remain.

[0014] Distribution management systems have also been developed. These systems allow the end user to influence energy distribution based on their consumption. However, these systems do not allow for autonomous energy production or adaptation to each installation. Indeed, distribution is based on the average consumption of an entire building, for example. Thus, these systems lack precision and sensitivity as well as adaptability.

[0015] Finally, proposals implementing an electrolysis process for the production of hydrogen have been developed. However, these technologies do not allow achieving the profitability and reliability necessary for the end user.

[0016] Thus, most of the existing solutions in energy production remain insufficient and the installations must remain dependent on the electricity supply network for example or on human intervention.

[0017] Thus, today, the need to link the efficiency of domestic energy management to the environmental impact (carbon footprint, renewable resource) is not yet optimized at the level of domestic energy. Current systems only consider the management of consumption or distribution on an industrial or individual scale and do not allow independence from networks and even less financial independence for the end user. In addition, each existing system or process requires the intervention of an operator in terms of maintenance, management, repair or upkeep. Furthermore, security in the production or storage of energy is also a major issue. Finally, it is important to emphasize that conventional energy storage solutions have limits in terms of longevity, acquisition cost and sustainability.

[0018] Thus, there is a need for new processes and systems that are autonomous and / or independent of existing networks and human interventions, efficient in terms of production, distribution and storage of domestic energy with an improved lifespan while being profitable, simple and secure for the end user and with low environmental impact to promote the ecological transition. Obviously, there is also the dimension of profitability and cost limitation for the end user.

[0019] The invention aims to remedy the drawbacks of the prior art. In particular, the invention aims to propose an autonomous system for producing and / or storing at least one energy, preferably at least one domestic energy. said system being of improved efficiency in terms of management, precision and sensitivity, and allowing independence and autonomy of the end user. In addition, the proposed system has a low or zero carbon footprint or even one that can prove negative. In addition, the system is particularly secure for the end user and inexpensive, which can even justify profitability.

[0020] The invention further aims to propose an autonomous method for producing and / or storing at least one energy, preferably at least one domestic energy, said method being simple to implement, sensitive and precise while allowing complete autonomy for the end user. In addition, the proposed method has a low or zero carbon footprint or even one that can prove negative. In addition, the method is particularly secure for the end user and inexpensive and can even justify profitability. Summary of the invention

[0021] The invention aims to overcome these drawbacks. The following presents a simplified summary of selected aspects, embodiments and examples of the present invention for the purpose of providing a basic understanding of the invention. However, this summary does not constitute an exhaustive overview of all aspects, embodiments and examples of the invention. Its sole purpose is to present selected aspects, embodiments and examples of the invention in a concise form as an introduction to the more detailed description of the aspects, embodiments and examples of the invention which follow the summary.

[0022] The invention relates in particular to an autonomous system for producing and / or storing at least one energy for an installation, said system comprising:

[0023] - at least one IT infrastructure comprising

[0024] - at least one control module configured to control the system in real time production and / or storage from user data and / or system data,

[0025] - at least one security module configured to secure the system in real time of production and / or storage from user data and / or system data,

[0026] - at least one storage module configured to store user data reader and system data,

[0027] - at least one correction module configured to implement at least one corrective action from user and / or system data,

[0028] - at least one energy production device comprising:

[0029] - at least one transformer configured to transform at least one resource primary into at least one intermediate resource and / or into at least one energy,

[0030] - at least one first reactor configured to transform the at least one energy and / or at least one intermediate resource into at least one final resource,

[0031] - at least one second reactor configured to produce the at least one energy at from at least one final resource,

[0032] -the at least one first reactor is further configured to be supplied by the at least one second reactor

[0033] -the at least one energy production device is further configured to be coupled with the at least one IT infrastructure, and the installation

[0034] - at least one storage device configured to store the at least one resource primary and / or intermediate and / or final and / or the at least one energy, the at least one storage device is further configured to supply the at least one transformer and / or the at least one first reactor and / or the at least one second reactor, the at least one storage device is further configured to be coupled with the at least one IT infrastructure and the installation.

[0035] The applicant has developed an autonomous energy production and / or storage system capable of producing and / or storing energy autonomously. The system is capable of responding to the user's needs at any time. Furthermore, the developed system is efficient in terms of energy production, distribution and storage.

[0036] In addition, the system has an improved lifespan while being cost-effective, simple and secure for the end user and with low environmental impact to promote the ecological transition.

[0037] The system allows for improved efficiency in terms of management, precision and sensitivity, and allows independence and autonomy for the end user. In addition, the proposed system has a low or zero carbon footprint or even one that can be negative, thereby promoting the ecological transition. In addition, the system is particularly secure for the end user and inexpensive, even justifying profitability.

[0038] According to other optional characteristics of the system, the latter may optionally include one or more of the following characteristics, alone or in combination: - the at least one primary resource is selected from a resource of photovoltaic and / or wind and / or hydraulic origin and / or biomass and / or organic waste and / or liquid effluents; - the at least one storage device comprises at least one automatic and / or semi-automatic evacuation means configured to be activated or deactivated depending on user data and / or system data, - the at least one energy production device is configured to be activated and / or deactivated based on user data and / or system data; - at least one intermediate resource is selected from methane and /

[0039]

[0040]

[0041]

[0042]

[0043]

[0044]

[0045] or electricity, - the at least one second reactor is configured to supply the at least one first reactor with a reaction by-product; - the energy is selected from electrical energy and / or thermal energy, - it comprises a means of coupling with a carbon recovery pathway and / or a means of coupling with a carbon dioxide recovery pathway and / or a means of coupling with a digestate recovery pathway and / or a means of coupling with a hydrogen recovery pathway and / or a means of coupling with an oxygen recovery pathway. According to a second object, the invention relates to an autonomous method for producing and / or storing at least one energy, said method being implemented by an autonomous system for producing and / or storing at least one energy for an installation according to the invention, the method comprising: - a production step, by a transformer, of at least one intermediate resource and / or at least one energy from at least one resource, - a production step, by at least one first reactor, of at least one final resource from the at least one intermediate resource and / or the at least one energy, - a step of producing at least one energy from the at least one final resource by at least one second reactor, said step of producing at least one energy comprising a step of supplying the at least one first reactor by the at least one second reactor, - a storage step by at least one storage device of at least one primary and / or intermediate and / or final resource and / or of at least one energy, said method further comprising: - A step of memorizing system data and user data, - A real-time control step of the production process and / or storage of at least one energy based on user data and / or system data - A real-time security step for the production and / or storage process based on user data and / or system data, - A step of correction of the production and / or storage process from system and / or user data The applicant has developed an autonomous energy production and / or storage process capable of producing and / or storing energy autonomously. The process is capable of meeting the user's needs at any time. In addition, the developed process is efficient in terms of production, distribution and storage. of energy.

[0046] In addition, the process has an improved lifespan while being cost-effective, simple and secure for the end user and with low environmental impact to promote the ecological transition.

[0047] The method allows for improved efficiency in terms of management, precision and sensitivity, and allows independence and autonomy for the end user. In addition, the proposed method has a low or zero carbon footprint or even one that can be negative, thereby promoting the ecological transition. In addition, the method is particularly secure for the end user and inexpensive, even justifying profitability.

[0048] According to other optional characteristics of the process, the latter may include a step of methanization and / or plasmalysis, preferably cold plasmalysis, and / or pyrolysis and / or electrolysis. Brief description of the drawings

[0049] Other characteristics and advantages of the invention will be better understood on reading the description which follows and with reference to the appended drawings, given for illustrative purposes and in no way limiting.

[0050] [Fig.l] [Fig.l] represents a diagram of an autonomous system for producing and / or storing at least one energy according to one embodiment of the invention.

[0051] [Fig.2] [Fig.2] represents a diagram of an autonomous method for producing and / or storing at least one energy according to an embodiment of the invention

[0052] The figures do not necessarily respect the scales, in particular in thickness, and this is for illustration purposes.

[0053] Aspects of the present invention are described with reference to flowcharts and / or functional diagrams of methods, apparatuses (systems) and computer program products according to embodiments of the invention.

[0054] In the figures, the flowcharts and block diagrams illustrate the architecture, functionality, and operation of possible implementations of systems, methods, and computer program products according to various embodiments of the present invention. In this regard, each block in the flowcharts or block diagrams may represent a system, device, module, or code, which includes one or more executable instructions for implementing the specified logical function(s). In some implementations, the functions associated with the blocks may appear in a different order than shown in the figures. For example, two blocks shown in succession may, in fact, be executed substantially simultaneously, or the blocks may sometimes be executed in reverse order, depending on the functionality involved. Each block in the flowcharts or block diagrams principle and / or flowchart, and combinations of blocks in the block diagrams and / or flowchart, may be implemented by special hardware systems that perform the specified functions or acts or carry out combinations of special hardware and computer instructions. Description of the embodiments

[0055] Below, we describe a summary of the invention and the associated vocabulary, before presenting the disadvantages of the prior art, and then finally showing in more detail how the invention remedies them.

[0056] In the remainder of the description, the expression “autonomous” may correspond to an independence of the system or the process, that is to say that it is not dependent on the electrical network for example or on human intervention. In particular, it may be a question of self-management in terms of maintenance that is not undergone but predictive.

[0057] The term "in real time" within the meaning of the invention may correspond to the fact that actions or modifications are representative of the reality of the environment. Thus, preferably modifications or actions in real time make it possible to integrate into the IT infrastructure, preferably in a security module and / or a control module, modifications and / or actions in less than 15 minutes, preferably in less than 10 minutes, more preferably in less than 5 minutes and even more preferably in less than 2 minutes or even in less than 1 minute.

[0058] The term “production” within the meaning of the invention may correspond to the generation of energy and / or the distribution of energy and preferably domestic energy.

[0059] The expression “domestic energy” can correspond to any energy required by an installation for its proper functioning.

[0060] The expression "installation" within the meaning of the invention may correspond to a private or public building, individual or collective, preferably with a power ranging from 1 to 100 kW, preferably 5 to 50 kW and more preferably from 10 to 40 kW. By installation, it may also be understood any element included in the installation requiring energy for its operation. For example, heating system, sanitary heating system, household appliances, vehicle electrical search, elevator, lighting, etc.

[0061] In the remainder of the description, the expression “coupled” or “cooperated” may correspond to connecting, directly or indirectly, with one or more intermediate elements. Two elements may be coupled mechanically, electrically or linked by a communication channel.

[0062] The invention proposes to take into consideration the ecological transition and in particular the carbon footprint in the production and / or storage of at least one energy, preferably at least one domestic energy for the installation. In particular In particular, the invention offers optimized and improved autonomy and efficiency compared to existing technologies with superior reliability.

[0063] Thus, the invention relates, according to a first aspect, to an autonomous system for producing and / or storing at least one energy, preferably at least one domestic energy for installation. An installation may correspond, as disclosed above, to a public or private, individual or collective building and their equipment (household appliances, heat system, charging system for electric vehicle, heating, sanitary).

[0064] A system according to the invention may comprise at least one IT infrastructure, at least one energy production device, at least one storage device.

[0065] More specifically, [Fig.l] can illustrate an autonomous system 1 for producing and / or storing at least one energy 2 for installation 3, said system 1 comprising at least one IT infrastructure 11 comprising: at least one control module 12 configured to control the production and / or storage system in real time from user data and / or system data, at least one security module 13 configured to secure the production and / or storage system in real time from user data and / or system data, at least one storage module 14 configured to store user data and system data, at least one correction module 15 configured to implement at least one corrective action from the user and / or system data,at least one energy production device 4 comprising: at least one transformer 41 configured to transform at least one primary resource 5 into at least one intermediate resource 6 and / or into at least one energy 2, at least one first reactor 42 configured to transform the at least one intermediate resource 6 and / or the at least one energy 2 into at least one final resource 7, at least one second reactor 43 configured to produce the at least one energy 2 from the at least one final resource 7, the at least one first reactor 42 is further configured to be powered by the at least one second reactor 43, the at least one energy production device 4 is further configured to be coupled with the at least one IT infrastructure 11, and the installation 3, at least one storage device 20 configured to store the at least one primary resource 5 and / or intermediate 6 and / or final 7 and / or the at least one energy 2,the at least one storage device 20 is further configured to power the at least one transformer 41 and / or the at least one first reactor 42 and / or the at least one second reactor 43, the at least one storage device 20 is further configured to be coupled with the at least one IT infrastructure 11 and the installation 3.,

[0066] Thus, an autonomous system 1 for producing and / or storing at least one energy 2 and preferably at least one domestic energy may comprise at least one device 4 for producing energy 2 and preferably domestic energy.

[0067] A production device 4 may comprise several elements which may or may not be distinct from each other.

[0068] A device 4 for producing energy 2 may comprise at least one transformer 41.

[0069] The at least one transformer 41 is configured to transform at least one primary resource 5 into at least one intermediate resource 6 and / or into at least one energy 2, preferably domestic energy. Preferably, the at least one transformer 41 is configured to transform at least one primary resource 5 into at least one reaction product 8 and at least one intermediate resource 6 and / or into at least one energy 2. Thus, a transformer 41 makes it possible to obtain at least one energy 2 and / or at least one intermediate resource and / or at least one reaction product 8.

[0070] Preferably, the at least one primary resource 5 may be a renewable resource and preferably exclusively renewable. For example, a primary resource 5 may be selected from solar energy and / or wind energy and / or hydraulic energy and / or biomass and / or organic waste and / or liquid effluents. This makes it possible to reduce the use of fossil energy and to promote the ecological transition, in particular by reducing the carbon footprint. Advantageously, this also allows the system 1 according to the invention to be adapted to several types of primary resources 5 making it possible to promote the diversity of input into the system 1 in identical and / or different resources at the same time or in a deferred manner. This also makes it possible to adapt to all installations and to each end user.

[0071] Furthermore, the at least one transformer 41 may correspond to at least one photovoltaic panel, at least one wind turbine, at least one hydraulic turbine and / or at least one methanizer configured to generate an intermediate resource 6 and / or at least one energy 2, preferably domestic and / or at least one reaction product.

[0072] A reaction product may for example be selected from CO2 and / or digestate.

[0073] Furthermore, the at least one transformer 41 may be configured to cooperate directly or indirectly with at least one first reactor 42 and / or a second reactor 43. The at least one transformer 41 may be configured to cooperate directly or indirectly with the at least one storage device 20. Directly may mean without an intermediary and indirectly may mean with at least one intermediary. An intermediary may correspond to any means allowing cooperation between the at least one transformer and the at least one reactor. Preferably, it is direct cooperation. This makes it possible, in particular, to limit losses of resources or products.

[0074] A device 4 for producing energy 2 may comprise at least one first reactor 42.

[0075] A first reactor 42 can be configured to transform the at least one energy 2, preferably the at least one domestic energy and / or the at least one intermediate resource 6 into at least one final resource 7. Even more preferably, a first reactor 42 can be configured to transform the at least one energy 2, preferably the at least one domestic energy and / or the at least one intermediate resource 6 into at least one final resource 7 and into at least one reaction co-product 9. Thus, a first reactor 42 makes it possible to obtain at least one final resource 7 and / or at least one reaction co-product 9.

[0076] Preferably, the at least one intermediate resource 6 can be selected from methane and / or electricity. This makes it possible to promote the autonomy of the system 1. This also makes it possible to promote the independence of the network user as well as to participate in the production of its energy 2. This also makes it possible to vary the resources.

[0077] The at least one final resource 7 is preferably hydrogen.

[0078] Furthermore, the at least one reaction co-product 9 may be selected from O2 and / or carbon.

[0079] The at least one energy production device 4 2, preferably the at least one first reactor 42 configured to generate a final resource 7 and / or a reaction co-product 9 can be selected from a thermal treatment reactor and / or an electrical treatment reactor. For example, at least one first reactor can comprise a pyrolyzer preferably configured to implement plasmalysis, preferably cold plasmalysis and / or pyrolysis and / or an electrolyzer.

[0080] Advantageously, the at least one energy production device 4 2 may comprise at least one purifier configured to purify the at least one intermediate resource 6 and / or final resource 7. The at least one purifier may be coupled directly or indirectly to the at least one first reactor. This makes it possible to improve the quality of the resources.

[0081] Advantageously, the at least one first reactor 42 can be configured to preferably be designed for and preferably be specifically designed to also be powered by the at least one second reactor 43. This makes it possible to promote autonomy, independence but also the reduction of the carbon footprint of the system 1 according to the invention in the production and / or storage of energy 2 and preferably domestic energy. Advantageously, the at least one first reactor can be configured to be supplied with reaction by-product 10 and preferably H2O by at least one second reactor 43. This also makes it possible to use and / or reuse the by-products 10.

[0082] Thus, the at least one first reactor 42 can be configured to cooperate directly or indirectly with at least one second reactor 43. Preferably, this is a direct cooperation so as to create a communicating link between the at least one first reactor and the at least one second reactor. This makes it possible in particular to limit losses of resources or product. In addition, this makes it possible to improve the reliability and robustness of the system 1 as well as its autonomy. This also makes it possible to maximize its efficiency and its production.

[0083] A device 4 for producing energy 2 may comprise at least one second reactor 43.

[0084] The at least one second reactor 43 can be configured to produce at least one energy 2, preferably domestic energy, from the at least one final resource 7. Preferably, the at least one second reactor 43 can be configured to produce at least one reaction by-product 10 and / or at least one energy 2, preferably domestic energy, from the at least one final resource 7. Preferably, the at least one second reactor 43 can be configured to produce at least one reaction by-product 10 and / or at least one energy 2, preferably domestic energy, from the at least one final resource 7 and from the at least one co-product 9 (preferably O2). Thus, a second reactor 43 makes it possible to obtain at least one reaction by-product 10 and / or at least one energy 2, preferably domestic energy.Furthermore, it makes it possible to reduce the carbon footprint of the system 1 or the GHGs since the reaction by-products 10 can be consumed in the energy production device 4 2. Similarly, it makes it possible to reduce the carbon footprint of the system 1 or the GHGs since the reaction co-products 9 can be consumed in the energy production device 4 2.

[0085] The energy 2 produced and preferably the domestic energy produced can be selected from electrical and / or thermal energy. This then makes it possible to provide the end user with different and complementary resources. This makes it possible to contribute to the autonomy and independence of the end user. Furthermore, this makes it possible to reduce the costs linked to the production of energy 2. This also results in a diversity of domestic energy produced.

[0086] A reaction by-product 10 may be selected from CO2 and / or H2O.

[0087] In addition, the at least one second reactor 43 is configured to preferably be designed for and preferably designed specifically to supply the at least one first reactor 42 preferably with reaction by-product 10 and even more preferably with water. This makes it possible to participate in the autonomy of the system 1 as well as to its independence.

[0088] In addition, the at least one second reactor 43 may be configured to preferably be designed for and preferably be specifically designed to be supplied by the at least one transformer 41 preferably with intermediate resource 6 and even more preferably with CH4. This makes it possible to contribute to the autonomy of the system 1 as well as its independence and to maximize its efficiency / production. In addition, this makes it possible to reduce the carbon footprint of the system. The communication between at least one transformer and at least one second reactor also makes it possible to reduce the needs of the system.

[0089] The at least one energy production device 4, preferably the at least one second reactor 43, may comprise a fuel cell and / or a combustion reactor. A combustion reactor may be selected from a thermal treatment reactor and / or an electrical treatment reactor. For example, the at least one second reactor 43 may correspond to a methane combustion and / or hydrogen combustion reactor.

[0090] Advantageously, the at least one device 4 for producing energy 2 may comprise at least one evacuator, at least one recuperator, at least one expander, at least one burner. These elements may each be coupled directly or indirectly to each other and / or to the at least one second reactor 43. This makes it possible, for example, to expand the final resource 7, preferably in the form of a fluid and more preferably in the form of a gas, to a pressure adapted to the operation of the at least one second reactor 43. Similarly, in the event of an exothermic reaction, the heat may be evacuated (preferably the hot water) by an evacuator. Similarly, a recuperator may be configured to recover the energy 2 produced. The at least one second reactor 43 is configured to produce at least one energy 2. Its role may therefore be to transform a final resource 7 into energy 2.During this process there may be a release of heat and production of reaction by-product 10. Thus, the power of the at least one second reactor 43 can be configured according to the power consumed by the user. In a particular embodiment, the at least one second reactor 43 can be coupled with a burner of the combustion chamber type. This makes it possible to generate heat.

[0091] Similarly, the at least one second reactor 43 may be configured to supply an installation 3, preferably an installation 3 as disclosed above. For example, an individual and / or collective building and the elements that they may contain. For example, the at least one second reactor 43 may be configured to supply heat storage, heating of the building, a cooking means, and / or a collective heat network.

[0092] The proposed solution allows the end user to aim for total autonomy of his installation 3 with an improved level of profitability. Thus, thanks to the solution according to the invention, the end user becomes significantly, or even completely, less aware of the evolution of the electricity market and frees himself from his dependence on his electricity supplier. In addition, the system according to the invention guarantees reliability and robustness beyond market standards.

[0093] An autonomous system 1 for producing and / or storing at least one energy 2 and preferably at least one domestic energy may comprise at least one storage device 20.

[0094] A storage device 20 may be configured to store the at least one primary 5 and / or intermediate 6 and / or final 7 resource and / or the at least one energy 2 (domestic energy). Preferably, a storage device 20 may be configured to store the at least one primary 5 and / or intermediate 6 and / or final 7 resource and / or the at least one energy 2 and / or reaction co-product 9 and / or reaction product and / or reaction by-product 10 and / or domestic energy. This makes it possible to improve and optimize energy management as well as to reduce losses. In addition, this makes it possible to improve the security of the system.

[0095] The at least one storage device 20 may further be configured to power the at least one transformer 41 and / or the at least one first 42 and / or the at least one second reactor 43. This makes it possible to contribute to the independence and autonomy of the system 1 according to the invention. The at least one storage device 20 may further be configured to power an installation 3. This makes it possible to contribute to the independence of the user and the independence of the installation 3.

[0096] The storage device 20 can be selected from at least one gas tank, at least one liquid tank, at least one storage bottle, at least one metal hydride tank, at least one silo (biomass) and / or at least one electrochemical battery.

[0097] The at least one storage device 20 may comprise a compression unit configured to modulate the pressure of the at least one intermediate 6 and / or final 7 resource and / or of at least one reaction product and / or of at least one reaction co-product 9 and / or of the at least one reaction by-product 10. For example methane and / or hydrogen and / or oxygen and / or CO2. Advantageously, the compression unit may comprise mechanical compression and / or electrochemical compression.

[0098] The at least one storage device 20 may comprise at least one automatic and / or semi-automatic evacuation means configured to be activated or deactivated according to the user data and the system data. This makes it possible to contribute to the security of the system 1 as well as to the maintenance of the system 1 and therefore to promote the autonomy and independence of the system 1 according to the invention. In addition, this makes it possible to contribute to the precision of the system 1 and to the limitation of losses.

[0099] Furthermore, the at least one storage device 20 is further configured to be coupled with the at least one IT infrastructure 11. Similarly, the at least one energy production device 4 2 is further configured to be coupled with the at least one IT infrastructure 11. This makes it possible to contribute to the autonomy of the system 1. Furthermore, this makes it possible to improve its robustness and its lifespan. Furthermore, this improves the precision and efficiency of the system 1 while adapting to the needs of the user in a precise and efficient manner. This therefore also makes it possible to reduce losses. Finally, this improves the security of the system 1.

[0100] Thus, an autonomous system 1 for producing and / or storing at least one energy 2, preferably domestic energy for installation, may comprise at least one computer infrastructure 11. A computer infrastructure 11 may comprise a plurality of instructions or modules or applications for performing various functionalities. Thus, the at least one computer infrastructure 11 may implement routines, programs, or matrix-type data structures. The computer infrastructure 11 may, for example, be connected with the other components of the system 1 via a bus and / or one or more data support interfaces.

[0101] A computer infrastructure 11 may comprise at least one control module 12, at least one security module 13, at least one storage module 14, at least one correction module 15. The term "module" as used herein may, for example, mean a unit comprising hardware, software and firmware or a combination of two or more of them. The "module" may be used interchangeably with, for example, the term "unit", "logic", "logic block", "component" or "circuit". The "module" may be a minimal unit of an integrated building block or a part thereof. The "module" may be a minimal unit for performing one or more functions or a part thereof. The "module" may be implemented mechanically (hardware) or electronically (firmware) or computer-based (software).

[0102] A computer infrastructure 11 may comprise at least one storage module 14 capable of, preferably configured to, store a plurality of preference data, user data, and system data. For this purpose, the storage module 14 may comprise any computer-readable medium known in the art, including, for example, volatile memory, such as static random access memory (SRAM) and dynamic random access memory (DRAM), and / or non-volatile memory, such as read-only memory, flash memories, hard disks, optical disks, and magnetic tapes. Preferably, the storage module 14 may comprise a medium readable by a computer system in the form of volatile memory, such as random access memory (RAM) and / or cache memory. storage module 14 can be local or remote.

[0103] The storage module 14 may in particular be configured to store user data. The user data may, for example, include installation identification data such as surface area, ceiling height, insulation, number of windows and / or materials and / or purpose of the building (residential or industrial). The user data may, for example, include identification data of the various equipment in the installation, for example type of equipment, consumption and / or DPE and / or type of heating means. The user data may, for example, include identification data of the various consumptions of the end user, for example gross consumption, average consumption, consumption by equipment, by floor, by installation and / or by room. In addition, the user data may be stored according to time, day, week, month and / or season.Thus, user data can be weighted to understand corrected consumption.

[0104] The storage module 14 may in particular be configured to store system data. The system data may for example comprise identification data of the different elements of the system (such as transformers, reactors, and / or storage devices), their no-load capacity, their operating capacity, their operating state, the operating duration, operating state data, lifetime data, aging data, availability data, and / or predictive data, safety monitoring data. The system data may also be stored as a function of time, day, week, month, and / or season. Thus, the system data may be weighted in order to comprise corrected system data.

[0105] Preferably, the user data and system data are in real time and stored in real time.

[0106] A computer infrastructure 11 may comprise at least one control module 12. A control module is capable of, preferably configured to control preferably in real time the system 1 according to the invention from user data and / or system data. The control module 12 may also be configured to measure each data item and assign a value to said user and / or system data.

[0107] For this, the control module 12 can use a probe or a plurality of probes, sensor or plurality of sensors.

[0108] These probes and / or sensors can be associated with each system 1 and / or user data to return measurement or metric information, representing for example the operating status and / or the associated consumption. For each data item, the probe(s) / sensor(s) define an identifier and a value. The values can be monitored continuously or at configurable intervals so as to obtain information for each data item as a function of time and preferably in real time. This information can be stored in the at least one storage module 14. In certain embodiments, a human-machine interface can allow the probes / sensors to be defined for each data item.

[0109] A sensor or probe can be any device capable of recording and transmitting information. For example, a sensor can be selected from: at least one pressure sensor, at least one temperature sensor, at least one voltage sensor, at least one volume sensor, at least one flow sensor, at least one ventilation sensor, at least one gas detection sensor, consumption sensor, production sensor, level sensor, vibration sensor, current sensor.

[0110] The control module 12 makes it possible to collect and measure each user and / or system data.

[0111] A computer infrastructure may comprise at least one security module 13. A security module 13 may be capable of, preferably configured for, more preferably designed for and even more preferably specifically designed to secure in real time the system 1 according to the invention from user data and / or system data.

[0112] Furthermore, a safety module 13 may be configured for the detection of a failure via the measured values. This makes it possible to monitor the performance of the system 1 and may, for example, refer to the performance observed by end users.

[0113] A security module 13 is capable of, preferably configured to secure in real time the system 1 according to the invention.

[0114] A security module 13 is preferably configured as a function of system data and user data. Thus, a security module 13 is configured to store data corresponding to predetermined quality of service parameter thresholds, beyond which the user and / or system data is considered to be faulty (i.e. malfunctioning).

[0115] Advantageously, a security module 13 is configured to store several categories of predetermined thresholds of quality of service parameters with for example a category corresponding to the service levels beyond which a value of a data item is considered to provide a degraded but acceptable service and a category corresponding to the service levels beyond which a value of a data item is considered to be faulty. Thus, the category can correspond to an indicator of acceptability of the service level and / or an indicator of acceptability of the security level with for example values ​​of the type: expected operation, acceptable operation, unacceptable operation.

[0116] Several data can be measured in parallel as well as several in Service level indicators and / or security level indicators can be monitored in parallel. Preferably, service levels and / or security levels are measured regularly and may correspond, for example, to a search response time of less than one second.

[0117] Furthermore, the security module 13 may be capable of, preferably configured to, store an evolution rule repository. The evolution rule repository is configured to store predetermined failure values ​​and corrective action data associated with predetermined failure values. Thus, the evolution rule repository may be configured to store associations between failure values ​​and data relating to at least one corrective action.

[0118] Advantageously, the data relating to at least one corrective action may include reports intended for a user or executable instructions making it possible to modify the configuration of the IT infrastructure 11 or of the system in order to generate a corrective measure on the system 1.

[0119] Preferably, the evolution rules repository is configured to store corrective actions based on user and system data.

[0120] The safety module 13 is capable of, preferably configured to, compare the predetermined thresholds with the measured values. The safety module 13 is generally configured to identify an exceedance of the predetermined values ​​by the measured values.

[0121] Advantageously, an IT infrastructure 11 according to the invention may also comprise at least one correction module 15. A correction module 15 makes it possible, preferably from a repository of evolution rules, to select the solution(s) to be implemented as a function of the type of failure. Thus, the correction module 15 is capable of, preferably configured to, implement at least one corrective action from the system and / or user data. A correction module 15 is preferably configured to select at least one corrective action from the failure data generated by the security module 13 and from a repository of evolution rules comprising predetermined values ​​of the failure parameters.

[0122] Thus, the IT infrastructure 11 can be configured to activate and / or deactivate, depending on the user data and / or the data of the system 1, the at least one energy production device 4 and / or the at least one storage device 20.

[0123] The different modules or repositories are distinct in [Fig.l] but the invention can provide various types of arrangement such as for example a single module combining all the functions described here. Similarly, these means can be divided into several electronic cards or gathered on a single electronic card.

[0124] The computing infrastructure according to the invention can be integrated into a computing system and thus be able to communicate with one or more external devices such as a keyboard, a pointing device, a display, or any device allowing a user to interact with the system 1. It should be understood that although not shown, other hardware and / or software components could be used in conjunction with a system 1, such as a Smartphone.

[0125] Thus, in one embodiment of the present invention, the system 1 may be coupled to a human machine interface (HMI). The HMI may be used to enable the transmission of parameters / data / value to the system 1 or conversely make available to the user the values ​​of the data measured or calculated by the computing infrastructure 11. Generally, the HMI is communicatively coupled with a processor and it comprises a user output interface and a user input interface. The user output interface may comprise a display and audio output interface and various indicators such as visual indicators, audible indicators and haptic indicators.The user input interface may include a keyboard, mouse, or other cursor navigation module such as a touchscreen, touchpad, stylus input interface, and microphone for inputting audible signals such as user speech, data, and commands that can be recognized by the processor. The HMI may also be communicatively coupled with a processor. In addition, the HMI may include a system output interface and a system input interface 1 (maintenance needs).

[0126] In one embodiment of the present invention, the system 1 may be coupled to a communication interface, for example a network interface of the Ethernet, Fi-berChannel, InfiniBand, multiplexing, telephone network type or any devices allowing the system 1 to communicate with one or more other computing devices.

[0127] Furthermore, as will be appreciated by those skilled in the art, aspects of the present invention may be embodied as a system, method, or computer program product. The computer may advantageously be replaced by a programmable logic device (PLD) or FPGA (field-programmable gate array), programmable gate array Accordingly, aspects of the present invention may take the form of an all-hardware embodiment, an all-software embodiment (including firmware, resident software, microcode, firmware, etc.) or a particular embodiment such as a "circuit", "module" or "system". Furthermore, aspects of the present invention may take the form of a computer program product embodied in one or more computer-readable media having computer-readable program code embodied thereon.

[0128] Any combination of one or more computer-readable media may be used. In the context of this document, a computer-readable medium may be any tangible medium that can contain, or store a program for use by or in connection with an instruction execution system, apparatus or device. A computer-readable medium may be, for example, but not limited to, an electronic, magnetic, optical, electromagnetic, infrared or semiconductor system, apparatus or device, or any suitable combination of the foregoing. More specific examples (a non-exhaustive list) of the computer-readable storage medium would include: a hard disk drive, random access memory (RAM).

[0129] Computer program code for performing operations for aspects of the present invention may be written in any combination of one or more programming languages, including an object-oriented programming language such as Java, C++ or the like, the "C" programming language or similar programming languages, a scripting language such as Perl, or similar languages, and / or functional languages ​​such as Meta Language and / or Hardware Description Languages ​​(VHDL). The program code may execute entirely on a user's computer, partly on a user's computer and partly on a remote computer, or entirely on the remote computer or server. In the latter scenario, the remote computer may be connected to a user's computer by any type of network, including a local area network (LAN) or a wide area network (WAN).

[0130] These computer program instructions can be stored on a computer-readable medium capable of directing a computing device (e.g., computer, server, etc.), such that the instructions stored in the computer-readable medium produce a computing device configured to implement the invention.

[0131] Returning to the system 1 according to the invention, the latter may comprise a primary 5 and / or intermediate 6 and / or final 7 resource distributor / distributor / regulator configured to distribute and / or distribute and / or regulate the at least one primary 5 and / or intermediate 6 and / or final 7 resource as a function of user data and data from the production and / or storage system 1. Preferably, a system 1 according to the invention may comprise a primary 5 and / or intermediate 6 and / or final 7 resource and / or reaction product and / or co-product 9 and / or reaction by-product 10 distributor / distributor configured to distribute the at least one primary 5 and / or intermediate 6 and / or final 7 resource and / or reaction product and / or co-product 9 and / or by-product 10 as a function of user data and / or system data from the production and / or storage system 1.

[0132] An autonomous system 1 for producing and / or storing energy 2 according to the invention may comprise a power supply unit for the electrical network, said power supply unit comprising at least one converter, at least one inverter, at least one contactor and / or at least one programmable controller.

[0133] A system 1 according to the invention may also comprise at least one heat exchanger. A heat exchanger makes it possible to contribute to the independence and autonomy of the system.

[0134] A system 1 may also comprise a means of coupling with a methane recovery pathway and / or with a carbon recovery pathway and / or with a carbon dioxide recovery pathway and / or with a hydrogen recovery pathway and / or with an oxygen recovery pathway and / or a means of coupling with a digestate recovery pathway.

[0135] The system 1 according to the invention makes it possible to power and make installations 3 totally autonomous, preferably in energy 2 and more preferably in domestic energy. The system 1 according to the invention allows the production of energy 2 with a low or even negative carbon footprint. Energy efficiency is achieved thanks to an IT infrastructure 11 (software intelligence) which adapts to the conditions of use and system 1 and the availability of resources, energy 2, reaction products, reaction by-products 10 and reaction co-products 9. The IT infrastructure 11 makes it possible to adapt to the intermittency of renewable energies by advanced predictive models (Artificial Intelligence). The IT infrastructure 11 also makes it possible to adjust the energy consumption profile while respecting the comfort and the needs of the user (controlled consumption profile).In addition, the IT infrastructure 11 guarantees the right level of security for goods and people while maintaining continuity of service linked to the constraint of total autonomy (failure rate < 105 in operating hours). Furthermore, the system 1 according to the invention allows safe and dimensioned storage that can be shared, preferably locally. Thus, the system 1 according to the invention allows predictive, periodic and corrective maintenance. Finally, the system 1 allows a reduction in the load on the national network and the entire system 1 configured to be implemented locally (from the primary resource to the energy produced) can be self-powered and supply other recovery methods or the network. The system therefore requires little or no logistics and transport. The system is particularly efficient (sensitive and precise) with less energy loss, reliable and secure while being autonomous, independent with a very low carbon impact.Furthermore, System 1 is beneficial for the end user's profitability.

[0136] According to another aspect, the invention relates to the use of at least one energy 2 produced by an autonomous production and / or storage system 1 according to the invention. in household appliances, electrical appliances, heating systems, cooking systems, light vehicles, industrial processes (such as industrial sites for example), lighting, elevators, electric and / or automatic doors, security systems, local collective heating networks.

[0137] According to another aspect, the invention also relates to the use of an autonomous system 1 for producing and / or storing at least one energy 2 in an installation 3.

[0138] According to another aspect, the invention relates to an autonomous method 200 for producing and / or storing at least one energy 2, said method being implemented by an autonomous system 1 for producing and / or storing at least one energy 2 for installation 3 according to the invention.

[0139] A method according to an embodiment of the invention can be illustrated in connection with [Fig.2],

[0140] A method 200 may comprise a step 210 of producing at least one intermediate resource 6 and / or at least one energy 2, a step 220 of producing at least one final resource 7 from the at least one intermediate resource 6 and / or the at least one energy 2, a step 230 of producing at least one energy 2 from the at least one final resource 7, said step 230 of producing at least one energy 2 comprising a supply step, a step 240 of storing the at least one primary resource 5 and / or intermediate resource 6 and / or final resource 7 and / or the at least one energy 2, said method 200 further comprising a step 250 of storing system data and user data, a step 260 of controlling in real time the system 1 of producing and / or storing at least one energy 2 as a function of user data and / or system data,a step 270 of securing in real time the production and / or storage system 1 from user data and / or system data, a step 280 of correcting the production and / or storage system 1 from system and / or user data.

[0141] A method 200 according to the invention may comprise a step 205 of supplying at least one primary resource. Such a step 205 may be implemented from storage of primary resource 5 by a storage device 20 and / or by a resource of photovoltaic and / or wind and / or hydraulic and / or biomass and / or organic waste and / or liquid effluent origin. This makes it possible to reduce fossil resources and to supply the method 200 according to the invention with primary resource 5 while varying the primary resources.

[0142] A method 200 according to the invention may comprise a step 210 of producing at least one intermediate resource 6 and / or at least one energy 2. Preferably a step of producing at least one reaction product and at least one intermediate resource 6 and / or at least one energy 2. Such a step may be carried out by a transformer 41 as disclosed above. This allows the obtaining of at least one energy 2 and / or at least one intermediate resource 6 and / or at least one reaction product. Advantageously, this also allows the method 200 according to the invention to be adapted to several types of primary resources 5 making it possible to promote the diversity of input into the method 200 in identical and / or different resources at the same time or in a deferred manner. This also makes it possible to adapt to all installations and to each end user.

[0143] A method 200 according to the invention may comprise a step 220 of producing at least one final resource 7 from the at least one intermediate resource 6 and / or the at least one energy 2. Preferably, a step of producing at least one reaction co-product 9 and / or at least one final resource 7 from the at least one intermediate resource 6 and / or the at least one energy 2. Preferably, a step of producing at least one final resource 7 and at least one reaction co-product 9 from the at least one energy 2, preferably the at least one domestic energy and / or the at least one intermediate resource 6. Such a step makes it possible to obtain at least one final resource 7 and / or at least one reaction co-product 9. Such a step may be carried out by at least one first reactor 42 preferably as disclosed above.

[0144] A step of production of at least one final resource 7 and / or at least one co-product 9 may comprise a step of thermal treatment and / or electrical treatment, preferably such a step may comprise a step of methanization and / or plasmalysis, preferably cold plasmalysis, and / or pyrolysis and / or electrolysis and / or combustion.

[0145] A step of producing at least one final resource 7 and / or at least one co-product 9 may comprise a purification step by a purifier for example. Advantageously, the purification step may comprise the purification of the at least one intermediate and / or final resource.

[0146] A method 200 according to the invention may comprise a step 230 of producing at least one energy 2 from the at least one final resource 7. Such a step 230 may be implemented by the at least one second reactor 43 as disclosed above. Preferably, a method 200 according to the invention comprises a step of producing at least one reaction by-product 10 and / or at least one energy 2, preferably domestic energy, from the at least one final resource 7. More preferably, a step of producing at least one reaction by-product 10 and / or at least one energy 2, preferably domestic energy, from the at least one final resource 7 and the at least one reaction co-product 9. Thus, such a step makes it possible to obtain at least one reaction by-product 10 and / or at least one energy 2, preferably domestic energy. In addition, it allows to reduce the carbon footprint of the system 1 or GHGs since the reaction co-products 9 and / or reaction by-products 10 can be consumed by the energy production process 200. This then makes it possible to provide the end user with different and complementary resources. This helps contribute to the autonomy and independence of the end user. Furthermore, this makes it possible to reduce the costs associated with energy production 2. This also results in a diversity of domestic energy produced.

[0147] In addition, a step of producing at least one energy 2 may comprise a step of supplying the at least one first reactor 42, preferably with reaction by-product 10 and even more preferably with water by the at least one second reactor 43. This makes it possible to contribute to the autonomy of the process 200 as well as its independence. In addition, this makes it possible to reduce the carbon footprint of the process.

[0148] Advantageously, a step of producing at least one energy 2 may comprise a step of thermal treatment and / or electrical treatment. In addition, a step of producing at least one energy 2 may comprise a step of evacuation by at least one evacuator, a step of recovery by at least one recuperator, a step of expansion by at least one expander as disclosed above.

[0149] Furthermore, a step 230 of producing at least one energy 2 may comprise a step of supplying an installation, preferably an installation as disclosed above.

[0150] A method 200 according to the invention may comprise a storage step 240 of the at least one primary 5 and / or intermediate 6 and / or final 7 resource and / or of the at least one energy 2. Preferably, a method 200 according to the invention may comprise a storage step 240 of the at least one primary 5 and / or intermediate 6 and / or final 7 resource and / or of the at least one energy 2 (domestic energy) and / or reaction co-product 9 and / or reaction product and / or reaction by-product 10. This makes it possible to improve and optimize the management of the energy 2 as well as to reduce losses. In addition, this makes it possible to improve the security of the system 1. Preferably, such a step 240 may be implemented by a storage device 20 as disclosed previously.

[0151] The method may comprise a step 250 of storing system data and user data. Such a step 250 may be carried out by a computer infrastructure 11 and preferably by a storage module 14 as disclosed. Preferably, a storage step 250 is carried out in real time.

[0152] The method may comprise a step 260 of controlling in real time the method 200 of producing and / or storing at least one energy 2 as a function of data user and / or system data. The method may comprise a step 260 of controlling in real time the system 1 for producing and / or storing at least one energy 2 as a function of user data and / or system data. Such a step 260 may be carried out by a computer infrastructure 11, preferably by a control module 12 as disclosed.

[0153] A control step 260 may also comprise a measurement of each data item and assign a value to said user and / or system data item. This step 260 may comprise one or more probes, one or more sensors as disclosed.

[0154] The method may comprise a step 270 of securing in real time the production and / or storage method 200 from the user data and / or system data. The method may comprise a step 270 of securing in real time the production and / or storage system 1 from the user data and / or system data. Such a step 270 may be carried out by a computer infrastructure 11, preferably by a security module 13 as disclosed.

[0155] A security step 270 makes it possible to secure in real time the method 200 according to the invention and / or the system 1 according to the invention while ensuring quality of service and proper functioning of the method 200 to the end user.

[0156] Such a step 270 may comprise a step of detecting a failure via the measured values ​​preferably as a function of the system data and / or the measured user data. This makes it possible to monitor the performance of the method 200 and / or the system as a function of the performance observed by the end users.

[0157] A security step 270 may comprise a step of storing data corresponding to predetermined quality of service parameter thresholds, beyond which the user and / or system data is considered to be faulty (i.e. malfunctioning). Advantageously, several categories of predetermined quality of service parameter thresholds may be stored as developed previously.

[0158] Furthermore, a securing step 270 may comprise a step of storing the predetermined failure values ​​and corrective action data associated with predetermined failure values ​​by the IT infrastructure 11, preferably by the security module 13 and more preferably by a repository of evolution rules as disclosed. Thus, such a securing step may comprise storing the predetermined failure values ​​and corrective action data associated with predetermined failure values. Thus, this allows the storing of associations between failure values ​​and data relating to at least one corrective action. Such a securing step may also comprise the data relating to at least one corrective action which may include reports intended for a user or instructions. executables allowing modification of the configuration of the IT infrastructure 11 and / or of the system and / or of the method 200, preferably at least one step of the method 200 and / or at least one of the elements of the system in order to generate a corrective measure on the method 200 and / or the system 1. Advantageously, the securing step comprises the storage of corrective actions based on user and system data and the comparison of the predetermined thresholds with the measured values ​​to identify an exceeding of the predetermined values ​​by the measured values.

[0159] The method 200 may comprise a step 280 of correcting the production and / or storage method 200 from the system and / or user data. The method 200 may comprise a step 280 of correcting the production and / or storage system 1 from the system and / or user data. Such a step 280 may be carried out by a computer infrastructure 11 according to the invention, preferably by at least one correction module 15 as disclosed.

[0160] Such a step 280 makes it possible, preferably from a repository of evolution rules, to select the solution(s) to be implemented according to the type of failure. Thus, a correction step 280 can implement at least one corrective action from the system and / or user data. A correction step 280 can comprise a selection of at least one corrective action from the failure data generated during the securing step by the security module 13 and from a repository of evolution rules during the securing step 280 comprising predetermined values ​​of the failure parameters.

[0161] Thus, the IT infrastructure 11 can be configured to activate and / or deactivate, depending on the user data and / or the data of the system 1, the method 200 and preferably at least one step of the method 200 and / or the system, preferably at least one element of the system.

[0162] The method 200 may also comprise a step of supplying the at least one transformer 41 and / or the at least one first reactor 42 and / or the at least one second reactor 43. Such a step may be carried out from the storage step 240 by the at least one storage device as disclosed. This makes it possible to contribute to the independence and autonomy of the system 1 according to the invention.

[0163] Furthermore, the method 200 according to the invention may comprise a compression step carried out by a compression unit to modulate the pressure of the at least one intermediate resource 6 and / or final resource 7 and / or of the at least one energy 2, of at least one reaction product and / or of at least one reaction co-product 9 and / or of at least one reaction by-product 10. For example methane and / or hydrogen and / or oxygen and / or CO2. Advantageously, a compression step may comprise mechanical compression and / or electrochemical compression.

[0164] A storage step may comprise a removal step by at least one automatic and / or semi-automatic evacuation means for activating or deactivating the process 200 and preferably at least one step of the process depending on the user data and / or the system data and / or the system and preferably at least one of the elements of the system. This makes it possible to contribute to the security of the process 200 and the system 1 as well as to the maintenance of the process 200 and the system and therefore to promote the autonomy and independence of the process and the system according to the invention. Advantageously, the evacuation step may comprise evacuation to different recovery routes and / or to a network. In one embodiment, the evacuation step may be implemented directly after a production step of the process.

[0165] The method according to the invention may comprise a step of distribution / allocation in at least one primary resource 5 and / or intermediate 6 and / or final 7 and / or co-product 9 and or reaction product and / or by-product 10 as a function of the user data and / or the data of the system 1 by at least one distributor / distributor.

[0166] The method 200 according to the invention may comprise a step of activating and / or deactivating the method 200 and / or the system, preferably at least one step of the method 200 and / or one of the elements of the system as a function of the user data and / or the system data.

[0167] Thus, the method 200 according to the invention is both autonomous, independent and secure. Such a method 200 makes it possible to produce and store at least one energy 2 in an efficient, sensitive and precise manner. In addition, thanks to the method 200 according to the invention, the carbon footprint is perfectly controlled, and may even be negative. Such a method 200 also makes it possible to reduce losses of energy and / or resources and / or reaction co-product and / or reaction product and / or reaction by-product.

[0168] The invention may be the subject of numerous variants and applications other than those described above. In particular, unless otherwise indicated, the different structural and functional characteristics of each of the implementations described above should not be considered as combined and / or closely and / or inextricably linked to each other, but on the contrary as simple juxtapositions. Furthermore, the structural and / or functional characteristics of the different embodiments described above may be the subject in whole or in part of any different juxtaposition or any different combination.

Claims

Claims

1. Autonomous system (1) for producing and / or storing at least one energy (2) for an installation (3), said system comprising: - at least one IT infrastructure (11) comprising - at least one control module (12) configured to control the production and / or storage system (1) in real time from user data and / or system data, - at least one security module (13) configured to secure the production and / or storage system (1) in real time from user data and / or system data, - at least one storage module (14) configured to store user data and system data, - at least one correction module (15) configured to implement at least one corrective action from the user and / or system data,- at least one energy production device (4) comprising: - at least one transformer (41) configured to transform at least one primary resource (5) into at least one intermediate resource (6) and / or into at least one energy (2), - at least one first reactor (42) configured to transform the at least one energy (2) and / or the at least one intermediate resource (6) into at least one final resource (7), - at least one second reactor (43) configured to produce the at least one energy (2) from the at least one final resource (7), - the at least one first reactor (42) is further configured to be powered by the at least one second reactor (43) - the at least one energy production device (4) (2) is further configured to be coupled with the at least one IT infrastructure (11),and the installation (3) - at least one storage device (20) configured to store the at least one primary (5) and / or intermediate (6) and / or final (7) resource and / or the at least one energy (2), the at least one storage device (20) is further configured to power the at least one transformer (41) and / or the at least one first reactor (42) and / or the at least one second reactor (43), the at least one storage device (20) is further configured to be coupled with the at least one IT infrastructure (11) and the installation (3).,

2. Autonomous system (1) for producing and / or storing energy (2) according to claim 1 characterized in that the at least one primary resource (5) is selected from a resource of photovoltaic and / or wind and / or hydraulic origin, and / or biomass, and / or organic waste, and / or liquid effluents.

3. Autonomous system (1) for producing and / or storing energy (2) according to claim 1 or 2, characterized in that the at least one storage device (20) comprises at least one automatic and / or semi-automatic evacuation means configured to be activated or deactivated depending on user data and / or system data.

4. Autonomous system (1) for producing and / or storing energy (2) according to one of the preceding claims, characterized in that the at least one device (4) for producing energy (2) is configured to be activated and / or deactivated depending on user data and / or system data.

5. Autonomous system (1) for producing and / or storing energy (2) according to one of the preceding claims, characterized in that the at least one intermediate resource (6) is selected from methane and / or electricity.

6. Autonomous system (1) for producing and / or storing energy (2) according to one of the preceding claims, characterized in that the at least one second reactor (43) is configured to supply the at least one first reactor (42) with a reaction by-product (10).

7. Autonomous system (1) for producing and / or storing energy (2) according to one of the preceding claims, characterized in that the energy (2) is selected from electrical energy and / or thermal energy.

8. Autonomous system (1) for producing and / or storing energy (2) according to one of the preceding claims, characterized in that it comprises a means of coupling with a carbon recovery route and / or a means of coupling with a carbon dioxide recovery route and / or a means of coupling with a digestate recovery route and / or a means of coupling with a hydrogen recovery route and / or a means of coupling with an oxygen recovery route.

9. Autonomous method (200) for producing and / or storing at least one energy (2), said method (200) being implemented by an autonomous system (1) for producing and / or storing at least one energy (2) for installation according to claim 1, the method (200) comprising: - a production step (210), by a transformer (41), of at least one intermediate resource (6) and / or at least one energy (2) from at least one primary resource (5), - a production step (220), by at least one first reactor (42), of at least one final resource (7) from the at least one intermediate resource (6) and / or the at least one energy (2), - a production step (230), by at least one second reactor (43), of at least one energy (2) from the at least one final resource (7), said production step (230) of at least one energy (2) comprising a step of supplying by the at least one second reactor (43) the at least one first reactor (42), - a storage step (240) by at least one storage device (20) of at least one primary (5) and / or intermediate (6) and / or final (7) resource and / or of at least one energy (2), said method (200) further comprising: - A step of storing (250) system data and user data, - A step of controlling (260) in real time the process (200) of production and / or storage of at least one energy (2) according to user data and / or system data, - A step of securing (270) in real time the production and / or storage process (200) from user data and / or system data, - A correction step (280) of the production and / or storage method (200) from the system and / or user data.

10. Autonomous method (200) for producing and / or storing at least one energy (2) according to claim 9, characterized in that it comprises a step of methanization and / or plasmalysis, and / or pyrolysis and / or electrolysis.

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