Mobile modular system for generation and storage of photovoltaic energy in a container

Description

1 / 14 MODULAR MOBILE SYSTEM FOR GENERATING AND STORING PHOTOVOLTAIC ENERGY IN A CONTAINER Technological sector of invention

[01] The present invention falls within the distributed generation of electricity from renewable sources, more specifically in the field of mobile photovoltaic systems, intended for the rapid, autonomous and medium to high power provision in remote, temporary or unattended environments without conventional electrical infrastructure, significantly reducing the burning of fossil fuels. It also relates to the areas of electrochemical energy storage, photovoltaic-battery hybrid systems and modular electrical integration in containers, encompassing technologies for accelerated installation, operational mobility and continuous power supply in emergency, industrial and field applications. Known state of the art

[02] The use of photovoltaic energy in mobile or temporary applications has evolved in recent decades, but the state of the art remains limited in terms of actual generation capacity and, above all, structural mobility. The systems currently available on the market, although they use solar modules and lithium batteries, have a predominantly fixed configuration, requiring permanent installation on the ground, rigid structures or improvised bases.

[03] This reliance on fixed mounting compromises deployment agility and restricts its use in scenarios of high immediate energy demand, such as emergency operations or temporary installations. In short, the known technique does not offer large-scale solutions that can be moved, installed and removed quickly with safety and operational efficiency.

[04] In addition to this structural limitation, such systems often have low generation and storage capacity, being designed only for light or intermediate loads. Petition 870260013734, dated 12 / 02 / 2026, page 6 / 35 2 / 14

[05] This characteristic reduces its potential for use in infrastructure projects, isolated work fronts, temporary operational bases, industrial camps, and other scenarios that require a continuous and robust supply of electricity. As a result, in most of these situations, the need to use diesel generators as a primary or supplementary source persists, reinforcing high operating costs, complex supply logistics, and significant environmental impacts.

[06] Another critical point is that existing solutions rarely offer full integration in standardized containers, which hinders transportation, component protection, and standardization of installation procedures. The absence of a modular and compact architecture implies longer assembly times, the need for specialized labor, and exposure of equipment to the elements during transport.

[07] In remote regions, such as agricultural frontiers, mining bases, border zones, or areas devastated by natural disasters, this logistical fragility becomes decisive, as local infrastructure is scarce or non-existent, making it impossible to use systems that require extensive or permanent installation.

[08] The state of the art also does not adequately contemplate the operational mobility required for short-term applications. In temporary works, for example, companies frequently change their work fronts in a few days or weeks, requiring energy sources that can keep pace with the project.

[09] Current solutions do not offer an efficient mechanism for collecting and transporting photovoltaic modules without extensive manual disassembly, nor do they ensure that all components, including batteries, inverters, and electrical panels, remain protected and organized in a single logistics module. Thus, the unavailability of a truly mobile system limits the adoption of solar energy as a dominant option in these scenarios.

[010] Finally, there is a growing environmental motivation that permeates the need for new technical solutions. The dependence on diesel generators Petition 870260013734, dated 12 / 02 / 2026, page 7 / 35 3 / 14 in remote locations implies not only high operating costs, but also significant greenhouse gas emissions, fossil fuel consumption, and increased noise pollution.

[011] A mobile, high-capacity, and rapidly deployable photovoltaic system emerges as an environmentally superior alternative, drastically reducing diesel consumption, decreasing the risk of soil contamination from fuel spills, and aligning with modern sustainability and environmental responsibility guidelines.

[012] The lack, in the known art, of a robust mobile system that efficiently replaces fossil generators constitutes a direct motivation for the development of the present patent.

[013] That said, there are also some alternatives that represent the current state of the art and are described in patent documents. Some examples can be seen in the case of invention patent US20140230882 “MOBILE POWER SYSTEM” which describes a transportable electrical power generation system incorporating photovoltaic modules and storage units. This is a solution designed to provide power in remote locations, and can be moved according to operational needs. The document presents the idea of ​​a modular energy system, but oriented towards limited capacities and aimed at smaller-scale applications or reduced loads. Its basic design prioritizes the modularity of the equipment, but does not delve into the integration of large photovoltaic fields or methods for rapid deployment at high power levels.

[014] Despite proposing mobility, the system in this prior art does not include a foldable or accordion-style structure capable of accommodating a large number of photovoltaic modules, nor does it fully integrate hybrid inverters, high-performance batteries, and electrical protection into a single standard container. There are no mechanisms for automatic or semi-automatic panel retraction, nor solutions that allow for accelerated field installation. In essence, the Petition 870260013734, dated 12 / 02 / 2026, page 8 / 35 4 / 14 The document does not solve the technical problem of creating a high-capacity portable solar power plant capable of replacing diesel generators in heavy-duty operations and environments with high energy demands.

[015] Another relevant example is the invention patent US9,559,232 “FOLDING DEPLOYMENT SYSTEM FOR SOLAR PANELS” which presents a mechanism for opening and retracting solar panels based on folding joints. The focus of the document is on the development of a mechanical system that allows the positioning of the modules through a set of articulated arms, seeking to facilitate the transport and operation of small photovoltaic arrays. The invention focuses exclusively on the mechanical assembly supporting the panels, without addressing robust electrical integration, significant energy storage, or complete power plant architecture.

[016] Although it introduces a concept of structural mobility, the solution does not foresee industrial scale, does not accommodate large photovoltaic arrays, and does not offer integration with standardized containers. There is no provision for high-capacity lithium battery storage, nor the presence of hybrid inverters or internal electrical protection systems. The document also does not address high-demand remote applications, nor does it offer infrastructure for the practical replacement of diesel generators. Thus, despite presenting an articulated mechanism, the prior art does not contemplate the complete system necessary for continuous and robust power supply in remote or temporary operations.

[017] Also noteworthy is patent US20230291346 “SOLAR MOUNTING SYSTEM FOR A SHIPPING CONTAINER,” which presents a solar mounting system associated with shipping containers, allowing the attachment of photovoltaic panels to the top or side of these structural modules. The document describes supports and coupling mechanisms that facilitate the installation of photovoltaic arrays on transport units, aiming to create compact energy platforms. This is a solution that takes advantage of the structure. Petition 870260013734, dated 12 / 02 / 2026, page 9 / 35 5 / 14 container physics as a mounting base, but without proposing expanded power capabilities or collapsible structures in a large number of panels.

[018] Although it uses a container as a structural unit, the prior art does not contemplate any foldable or accordion-like system, does not internally house the entire electrical unit, and does not integrate inverters, batteries, and electrical distribution as a complete power plant system. It also does not address continuous operations in isolated environments, nor does it present mechanisms for the rapid deployment of large photovoltaic fields on the ground. The document's approach is restricted to the physical support of the panels, not providing a generation and storage solution capable of replacing fossil fuels in temporary works or remote operations.

[019] Thus, given all the drawbacks of the systems and equipment currently used, described above in the state of the art, it is clear that there is a gap in the creation of a mobile modular system for generating and storing photovoltaic energy in an environmentally friendly container, capable of drastically reducing the consumption of fossil fuels in locations with permanent or temporary demand for electricity. New features and objectives of the invention

[020] The present invention introduces a mobile photovoltaic energy generation and storage system in a container that overcomes the structural, operational and logistical limitations of the known state of the art. Its main novelty lies in the complete integration of a medium to high power solar power plant into a single transportable module, incorporating a set of bifacial photovoltaic panels, hybrid inverters, high-capacity lithium batteries, foldable or accordion-style metal structures and electrical protection panels, all installed in an organized and functional manner within a standard 20-foot container.

[021] Unlike known solutions, which require extensive assembly or fixed structures, the proposed system allows all its components to be moved, protected, collected and reinstalled quickly and safely, ensuring high operational mobility. Petition 870260013734, dated 12 / 02 / 2026, page 10 / 35 6 / 14

[022] One of the central objectives of the invention is to provide a solution capable of supplying electrical energy in remote or isolated locations, where the lack of infrastructure makes the use of conventional photovoltaic systems unfeasible. The integrated assembly allows the plant to operate immediately upon arrival at the site, eliminating the need for the construction of permanent bases or a complex installation process.

[023] This feature gives the invention high applicability in temporary construction sites, emergency installations, outposts, mining activities, humanitarian operations and any scenario that requires a continuous and reliable energy supply with minimal civil intervention.

[024] Another relevant innovation of the invention lies in the design of the foldable or accordion-like structure intended to accommodate a large number of photovoltaic modules. This structure makes it possible for up to one hundred bifacial panels to be transported inside the container and subsequently opened in the field in a quick and orderly manner.

[025] This structural arrangement is unprecedented in the context of high-power mobile photovoltaic systems, allowing the deployment of a considerable solar field in a few minutes, without the need for large teams or additional components. The solution eliminates the use of fixed bases, reduces manual effort and promotes greater efficiency and safety during assembly and disassembly cycles.

[026] The invention also aims to reduce or eliminate dependence on fossil fuel-powered generators, especially in temporary operations. By integrating hybrid inverters and high-performance lithium batteries, the system is able to operate continuously, providing energy during the day through photovoltaic generation and at night from accumulated storage. This feature increases the autonomy of field operations, reduces logistical costs related to diesel transportation, and substantially decreases greenhouse gas emissions, making the system environmentally superior to traditional alternatives. Petition 870260013734, dated 12 / 02 / 2026, page 11 / 35 7 / 14

[027] Finally, the invention aims to offer a technically robust, modular and standardized solution that can be moved between different works and locations with extreme ease, ensuring rapid reuse and extending the service life of the equipment. The container, in addition to serving as a means of transport, acts as a structural unit that protects all internal components, allowing the plant to be transferred from one point to another without significant disassembly.

[028] This combination of portability, high power, accelerated installation and hybrid operation characterizes the essential novelty of the present invention, establishing a significant advance in the field of mobile photovoltaic systems. Description of the attached drawings

[029] In order that the present invention may be fully understood and put into practice by any technician in this technological sector, it will be described in a clear, concise and sufficient manner, based on the attached drawings, which illustrate and support it, listed below:

[030] Figure 1 represents the external view of the system in its transport condition, showing the closed container, its metal structure, the ventilation elements, the lifting and anchoring points, as well as the compact configuration used for movement to the operating location.

[031] Figure 2 represents the internal view of the system with the container open.

[032] Figure 3 represents the mobile support structure of the photovoltaic panels during the opening process, illustrating the articulated segments, sliding mechanisms, articulation devices and stabilizing elements used to allow the quick and safe deployment of the solar module assembly.

[033] Figure 4 represents the system fully deployed in the field, with the photovoltaic panels distributed on the ground in operational position, supported by the open and stabilized articulated structure, while the container Petition 870260013734, dated 12 / 02 / 2026, page 12 / 35 8 / 14 remains in the background in working order, along with the grounding and lightning protection system.

[034] Figure 5 represents the functional electrical diagram of the system, showing the flow of solar energy from the panels to the inverters, passing through the electrical protections, battery storage and, finally, the distribution of energy to external loads. Detailed description of the invention

[035] The present invention relates to a mobile photovoltaic energy generation and storage system in a container, fully integrated and designed to provide electrical power in remote locations, temporary works and areas lacking infrastructure. The system is housed in a standard 20-foot structural container (1), preferably of the “high cube” type, sized for road, rail or sea transport, and which houses all the electromechanical equipment necessary for the continuous operation of the mobile photovoltaic plant.

[036] The external structure of the container consists of container doors (2), reinforced side panels (3) and a structural steel floor (4) that serves as a mounting platform for internal equipment, preferably with high mechanical resistance. The module is equipped with a ventilation and exhaust system (5), preferably assisted by forced ventilation, complemented by internal thermoacoustic insulation (6), preferably in rock wool or polyurethane, which protects sensitive components against excessive thermal variations.

[037] For transport and handling, the container has lifting and anchoring points (7) and an internal structural support for equipment (8) preferably sized to withstand vibrations and impacts typical of off-road transport.

[038] Inside the container is the assembly responsible for photovoltaic generation. The plant incorporates a set of bifacial photovoltaic panels (9), Petition 870260013734, dated 12 / 02 / 2026, page 13 / 35 9 / 14 preferably high-efficiency modules, stored in a retracted state when the system is in transit.

[039] Each individual photovoltaic module (10) is installed on a folding / accordion-style metal structure (11) composed of multiple articulated segments (12), preferably made of lightweight metal profiles, connected by articulation axes (13), preferably with low-friction bearings or bushings, which allow for rapid expansion and retraction.

[040] This structure is moved by means of sliding rails (14), preferably in galvanized steel or aluminum, and structure translation wheels (15), preferably with sealed bearings, allowing all panels to be removed from inside the container in a smooth, safe and aligned manner.

[041] To ensure stability during operation on the ground, the structure has mechanical safety locks (16), preferably by pins or manual locks, and ground support bases (17), preferably adjustable, ensuring that the modules maintain the appropriate inclination between 10° and 45°, according to the best local solar incidence (known technical data), and resist wind and vibration loads.

[042] Energy processing is ensured by a set of inverters located inside the container. The system incorporates at least one main hybrid inverter (18) and multiple additional hybrid inverters (19), preferably of bidirectional topology, equipped with DC / AC conversion functions and automatic load and storage management. The inverters have an internal charge controller (20) and an MPPT controller (21), preferably with multi-point tracking, which optimize the performance of the panels under different irradiance conditions.

[043] The photovoltaic inputs converge to a photovoltaic input DC bus (22) and, after processing, the energy is made available on the output AC bus (23), preferably three-phase. Petition 870260013734, dated 12 / 02 / 2026, page 14 / 35 10 / 14

[044] Energy storage is carried out by a robust LiFePO4 battery bank (24), preferably modular, installed on a metal battery rack (26) containing multiple individual battery modules (25) from 12V to 51.2V, preferably 48V.

[045] The system has a battery management system - BMS (27) that performs balancing and monitoring of voltage, current and temperature, preferably with CAN or RS485 communication. Interconnections are made by battery interconnection cables (28), preferably in tinned copper suitable for high currents.

[046] Energy distribution and operational safety are ensured by a set of switchboards and protections. The system includes a Main Distribution Switchboard - MDS (29) containing the main DC circuit breaker (30), preferably sized for the maximum current of the arrangement, and the main AC circuit breaker (31), preferably compatible with the nominal capacity of the system.

[047] Also included are DC SPDs (32) and AC SPDs (33), preferably class II, in addition to DC disconnect switches (34) and AC disconnect switches (35). The inverters are protected by an inverter circuit breaker (36) and the battery bank by a battery circuit breaker (37), preferably thermomagnetic.

[048] The photovoltaic inputs are arranged in the photovoltaic string-box (38) containing photovoltaic fuses (39), preferably gPV type. The entire system is connected to a grounding busbar (40), preferably connected to a dedicated grid.

[049] The cable and connection elements include DC photovoltaic cable (41), preferably 4 to 10 mm2, MC4 connectors (42), AC interconnect cable (43), preferably 10 to 35 mm2, and internal cable trays (44), preferably metallic. Critical paths are protected by metallic conduits (45) and interfaced by junction boxes (46). To facilitate installation and removal, the system has industrial quick-connect connectors (47), preferably IEC standard. Petition 870260013734, dated 12 / 02 / 2026, page 15 / 35 11 / 14

[050] Protection against lightning strikes is guaranteed by the LPS system, composed of LPS lightning rods (48), down conductors (49), grounding mesh (50), preferably in bare copper cable, grounding rods (51), preferably in copper or copper-clad steel, and grounding connectors (52).

[051] Operation and supervision are performed by a control and supervision panel (53) with inverter status display (54). The system may include a remote telemetry module (55), preferably with WiFi / LAN / 4G connectivity, complemented by a container temperature sensor (56) and a battery temperature sensor (57), preferably NTC or digital type. Visual indicators are provided by operating light indicators (58), and communication is carried out by the Wi-Fi / LAN communication system (59).

[052] For installation, the container has leveling feet (60), tie-down hooks (61), forklift hitch points (62) and internal rack fixings (63). Safety features include a class C fire extinguisher (64), smoke detector (65), automatic forced ventilation system (66) and thermal battery alarm (67).

[053] External interfaces include connection cable for external load (68), 220 / 380V industrial outlet socket (69), interface for auxiliary generator (70), technical inspection door (71), reinforced locks (72) and internal LED lighting (73).

[054] During operation, the module opening supports (74) ensure support of the expanded structure, while lateral structure locks (75) and rail travel limiters (76) prevent unwanted displacements. The end-of-travel stops (77) and the manual tilt adjustment (78), preferably adjustable, allow adaptation of the solar field.

[055] Mechanical safety is complemented by safety pins (79) and mechanical dampers (80), preferably for vibration reduction.

[056] Together, these elements form a complete, compact, and preferably quick-to-install system capable of supplying solar energy in Petition 870260013734, dated 12 / 02 / 2026, page 16 / 35 12 / 14 scale significant without dependence on fixed infrastructure. The integration of generation, storage, protection and mobility within a single container allows immediate application in remote environments, reducing the need for fossil fuel generators and ensuring superior environmental operation. Example of Execution

[057] In a practical application scenario, consider a civil construction site located in a remote area, without access to the conventional electricity grid. The equipment arrives at the site by road transport, being unloaded by a truck equipped with a crane, using the lifting and anchoring points (7) of the standard 20-foot structural container (1), preferably designed for operation with industrial lifting equipment.

[058] Once positioned, the container is leveled using the leveling feet (60), preferably with fine adjustment, ensuring initial stability for the deployment of the system.

[059] With the container properly positioned, the container doors (2) are opened and the assembly for moving the folding / accordion-style metal structure (11) is activated. The structure is slid out of the container by means of the sliding rails (14) and the structure's translation wheels (15), preferably with low-friction bearings, allowing the orderly removal of the individual photovoltaic modules (10) that make up the set of bifacial photovoltaic panels (9).

[060] The articulated segments (12) and the articulation axes (13) allow the structure to gradually expand to its full operational geometry.

[061] After full opening, operators adjust the tilt of the modules using the manual tilt adjustment (78), preferably calibrated for the local solar angle, and fix the modules to the ground using the ground support bases (17). Lateral stability is ensured by the lateral locks of the structure (75), while the final position is secured by the safety pins (79), with the aid of the end stops (77). The structure thus assembled forms a Petition 870260013734, dated 12 / 02 / 2026, page 17 / 35 13 / 14 complete photovoltaic field capable of generating energy immediately after solar incidence.

[062] The DC energy produced by the modules reaches the photovoltaic string-box (38), where it passes through the photovoltaic fuses (39), preferably of the gPV type. Then, the energy is routed to the photovoltaic input DC bus (22) and processed by the main hybrid inverter (18) and the additional hybrid inverters (19), preferably equipped with a high-efficiency MPPT controller (21).

[063] The resulting AC power is delivered to the output AC busbar (23) and distributed through the Main Distribution Board - MDB (29), which contains the main AC circuit breaker (31) and the necessary protections, including the AC SPDs (33).

[064] The system is designed to operate both during the day and at night. During solar generation, some of the energy is sent directly to the site loads, such as lighting, power tools, measuring equipment and administrative systems, via the 220 / 380V industrial outlet (69) and other loads connected to the external charging connection cable (68). The surplus energy is directed to the LiFePO4 battery bank (24), stored in individual battery modules (25) fixed in the metal battery rack (26), with continuous supervision by the battery management system BMS (27), preferably configured for digital communication.

[065] During nighttime or periods of low irradiance, the system's autonomy is guaranteed by the battery bank, which releases energy to the AC output bus (23) under the control of the hybrid inverters. The site supervisor can monitor the operation via the control and supervision panel (53) and the inverter status display (54), or remotely via the remote telemetry module (55), preferably with Wi-Fi or 4G connectivity. The container's internal environment is maintained in safe conditions by means of the ventilation and exhaust system (5), complemented by the automatic forced ventilation system (66), while operational safety is Petition 870260013734, dated 12 / 02 / 2026, page 18 / 35 14 / 14 reinforced by the smoke detector (65), by the class C fire extinguisher (64) and by the thermal battery alarm (67).

[066] Throughout the operating period, the system remains protected against lightning strikes by the assembly formed by the SPDA lightning rods (48), down conductors (49), grounding grid (50) and grounding rods (51), preferably installed in properly compacted soil. If necessary, an external generator can be coupled via the auxiliary generator interface (70), preferably with a quick coupling, ensuring redundancy for critical situations.

[067] At the end of the work phase, or in case of displacement of the work front, the entire structure can be quickly retracted: the mechanical safety locks (16) are released, the modules are folded onto the articulated segments (12), and the structure returns to the container moving along the sliding rails (14).

[068] With all the equipment stored again, the container doors (2) are closed and the system returns to transport mode, ready to be repositioned at another stage of the work.

[069] This example demonstrates that the invention allows the continuous execution of civil construction activities without dependence on diesel generators, reducing operational costs, atmospheric emissions and supply logistics, providing a mobile, fast, high-power and environmentally superior solution. Petition 870260013734, dated 12 / 02 / 2026, page 19 / 35

Claims

1 / 4 CLAIMS 1 - MOBILE MODULAR PHOTOVOLTAIC ENERGY GENERATION AND STORAGE SYSTEM IN A CONTAINER characterized by comprising a structural container (1) configured to house all the electromechanical components of the system; a set of photovoltaic panels (9) mounted on a mobile metal structure (11) equipped with articulated segments (12), articulation axes (13), sliding rails (14) and translation wheels (15), configured to allow opening, operation and retraction of the photovoltaic modules (10) from inside the container; at least one hybrid inverter (18) associated with a set of additional inverters (19), responsible for energy conversion and flow management between generation, storage and consumption; a battery bank (24) with battery modules (25) mounted in a rack (26) and managed by a battery management system (BMS) (27);a set of electrical protections consisting of string-box (38), photovoltaic fuses (39) and General Distribution Panel - QDG (29) containing DC and AC protection devices; a grounding and lightning protection system, including SPDA (48, 49, 50, 51); and a control and supervision panel (53) integrated into the system, configured for local and remote monitoring. 2 - MOBILE MODULAR SYSTEM FOR GENERATING AND STORING PHOTOVOLTAIC ENERGY IN A CONTAINER, according to claim 1, characterized by the mobile metal structure (11) being preferably configured to accommodate multiple photovoltaic modules (10), allowing accordion expansion to form a solar field with a large useful area. 3 - MOBILE MODULAR SYSTEM FOR GENERATING AND STORING PHOTOVOLTAIC ENERGY IN A CONTAINER, according to claim 1, characterized by allowing the articulated segments (12) and the articulation axes (13) to open progressively and in alignment with Petition 870260013734, dated 12 / 02 / 2026, page 20 / 35 2 / 4 from inside the container (1), maintaining mechanical integrity during movement. 4 - MOBILE MODULAR SYSTEM FOR GENERATING AND STORING PHOTOVOLTAIC ENERGY IN A CONTAINER, according to claim 1, characterized by the sliding rails (14) and the translation wheels (15) being preferably configured for operation with low friction, allowing smooth movement of the photovoltaic assembly. 5 - MOBILE MODULAR SYSTEM FOR GENERATING AND STORING PHOTOVOLTAIC ENERGY IN A CONTAINER, according to claim 1, characterized by comprising mechanical safety locks (16), ground support bases (17), side locks (75) and safety pins (79) intended to stabilize the structure during the operation of the solar field. 6 - MOBILE MODULAR SYSTEM FOR GENERATING AND STORING PHOTOVOLTAIC ENERGY IN A CONTAINER, according to claim 1, characterized in that the angle of inclination of the photovoltaic modules (10) can be adjusted by means of the manual tilt adjustment (78), preferably in a range compatible with the local solar position. 7 - MOBILE MODULAR SYSTEM FOR GENERATING AND STORAGE OF PHOTOVOLTAIC ENERGY IN A CONTAINER, according to claim 1, characterized by incorporating the hybrid inverter (18) and the additional inverters (19) MPPT controller (21) preferably configured with multipoint tracking. 8 - MOBILE MODULAR SYSTEM FOR GENERATING AND STORAGE OF PHOTOVOLTAIC ENERGY IN A CONTAINER, according to claim 1, characterized by the battery bank (24) preferably being composed of LiFePO4 technology modules, arranged in a metal rack (26) and individually monitored by the BMS (27). Petition 870260013734, dated 12 / 02 / 2026, page 21 / 35 3 / 4 9 - MOBILE MODULAR SYSTEM FOR GENERATING AND STORAGE OF PHOTOVOLTAIC ENERGY IN A CONTAINER, according to claim 1, characterized by including DC photovoltaic cable (41), MC4 connectors (42), AC cable (43), internal cable trays (44) and metallic conduits (45) positioned for routing and organizing internal cabling. 10 - MOBILE MODULAR SYSTEM FOR GENERATING AND STORAGE OF PHOTOVOLTAIC ENERGY IN A CONTAINER, according to claim 1, characterized by including industrial quick-connect connectors (47) configured to allow connection and disconnection of the system without the need for cable disassembly or specialized tools. 11 - MOBILE MODULAR SYSTEM FOR GENERATING AND STORING PHOTOVOLTAIC ENERGY IN A CONTAINER, according to claim 1, characterized by comprising the string-box (38) containing photovoltaic fuses (39) preferably sized for protecting the solar arrays against overcurrent. 12 - MOBILE MODULAR SYSTEM FOR GENERATING AND STORAGE OF PHOTOVOLTAIC ENERGY IN A CONTAINER, according to claim 1, characterized in that the main distribution panel QDG (29) contains a DC main circuit breaker (30), an AC main circuit breaker (31), a DC SPD (32), an AC SPD (33), a DC disconnect switch (34) and an AC disconnect switch (35), configured for full system protection. 13 - MOBILE MODULAR SYSTEM FOR GENERATING AND STORAGE OF PHOTOVOLTAIC ENERGY IN A CONTAINER, according to claim 1, characterized by including the SPDA system (48, 49, 50, 51) integrated into the container, intended for protection against lightning strikes during field operation. Petition 870260013734, dated 12 / 02 / 2026, page 22 / 35 4 / 4 14 - MOBILE MODULAR SYSTEM FOR GENERATING AND STORAGE OF PHOTOVOLTAIC ENERGY IN A CONTAINER, according to claim 1, characterized by incorporating the control and supervision panel (53) associated with the inverter status display (54) and the telemetry module (55), allowing local and remote monitoring of the system. 15 - MOBILE MODULAR SYSTEM FOR GENERATING AND STORING PHOTOVOLTAIC ENERGY IN A CONTAINER, according to claim 1, characterized by comprising thermal condition sensors, including a container temperature sensor (56) and a battery temperature sensor (57), configured to operate in conjunction with the ventilation system (5) and the automatic forced ventilation system (66). 16 - MOBILE MODULAR SYSTEM FOR GENERATING AND STORING PHOTOVOLTAIC ENERGY IN A CONTAINER, according to claim 1, characterized by including safety elements consisting of a class C fire extinguisher (64), smoke detector (65) and thermal battery alarm (67) positioned for immediate response in case of anomalies. 17 - MOBILE MODULAR SYSTEM FOR GENERATING AND STORAGE OF PHOTOVOLTAIC ENERGY IN A CONTAINER, according to claim 1, characterized by including an industrial outlet socket (69), interface for auxiliary generator (70), external charging cable (68) and technical inspection door (71), configured to allow dedicated operation in construction environments, remote areas or temporary installations. Petition 870260013734, dated 12 / 02 / 2026, pp. 23 / 35

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