An integrated system for power generation and method thereof

Abstract

An integrated system for power generation and method thereof is disclosed, for generating and utilizing hydrogen gas or oxyhydrogen gas for enhancing fuel efficiency, thereby providing energy efficient power generation. An electricity generation system (402) generates and store an electric current in a battery for processing a gas generator (100) i.e., hydrogen (H2) or oxyhydrogen (HHO) gas generator. In the gas generator (100) an Automatic Transmit Power Control power supply (102) stabilizes power transmission, providing constant current by a current source (104) to an electrolysis setup (106) for generating hydrogen (H2) gas or oxyhydrogen (HHO) gas. A thermostat regulates temperature, and a demister separates steam from the generated gas. A burner (200) combusts the generated gas. A steam boiler (302) converts water into high pressure steam using the generated gas. A steam turbine (304) converts the high-pressure steam into mechanical energy. An electricity generator (306) converts mechanical energy into electrical energy.

Description

AN INTEGRATED SYSTEM FOR POWER GENERATION AND METHOD THEREOFPRIORITY APPLICATION DETAILS

[0001] The present application claims the priority from the Indian provisional patent application number 202421015611 dated March 02, 2024, having a title as- AN INTEGRATED SYSTEM FOR POWER GENERATION AND METHOD THEREOF and the Indian provisional patent application number 202421073326 dated September 27, 2024, having a title as- AN INTEGRATED SYSTEM FOR POWER GENERATION AND METHOD THEREOF.CROSS REFERENCE

[0002] The provisional patent application number 202421015611 dated March 02, 2024, and provisional patent application number 202421073326 dated September 27, 2024, are cognate applications for the complete specification.TECHNICAL FIELD

[0003] The present technical disclosure relates generally to an integrated system for efficient power generation using hydrogen (H2) or oxy hydrogen (HHO) gas as a clean and sustainable energy source.BACKGROUND

[0004] Recently, with rapid development around the surrounding the demand for energy generation has been gradually increased. Due to the increased demand of energy, a large amount of carbon dioxide, nitrous oxide, methane, ozone and other harmful greenhouse gases is emitted which further leads to global warming, urban air pollution and frequentextreme climates. These greenhouse gases may also affect human health, especially targeting the human respiratory system. Therefore, the usage of renewable resources has been initiated which emits little to no greenhouse gases. The renewable resources include biomass energy, wind energy, hydropower, geothermal power and solar energy.

[0005] Typically, the demand for renewable resources has been increased, considering the benefits of renewable resources in terms of power or electricity generation and environmental well-being. These renewable sources should be responsibly managed in order to generate, store, and utilize power as they provide an important source of secure, non-declining and carbon-free energy available to the power grid of a region. Conventionally there are many provisions for generating sustainable power resources. However, due to dwindling natural resources and environmental concerns, alternative energy sources are crucial. Also, there is no assured provisions for home heating, power lighting or other electrical appliances which would feature low carbon emission, energy-saving, and easy and safe operation.

[0006] The patent application no. WO2017222236A1 titled "Electricity generating device" discloses a power generation apparatus using heat recovered from exhaust gas discharged into a flue via a steam generator. The device includes a gas turbine chamber coupled with a steam generator for generating steam, a steam turbine for converting thermal energy of steam that is generated by the steam generator into mechanical energy, a generator for converting mechanical energy of the steam turbine into electrical energy, a condenser for condensing steam discharged from the steam turbine, a reheater for reheating the water discharged from the condenser to supply to the steam generator and a waste heat recovery device for recovering the sensible and latent heat in the exhaust gasdischarged through the steam generator and providing it as a heat source of the reheater generating a second heat medium. However, the patent application no. WO2017222236A1 has many drawbacks especially in view of lack of safety and sustainable power resources. The patent application no. WO2017222236A1 primely focuses on generating electricity, it does not teach about a power generation system using oxy hydrogen gas or usage of any other renewable resources in particular. Further, the patent application no. WO2017222236A1 does not teach about using a solar panel for generating electric current, electrolysis setup for producing oxy hydrogen gas or any other gas and burner for combustion of the generated gas. Furthermore, the patent application no. WO2017222236A1 does not disclose thermostat required for regulating the temperature while gas generation and demister for separating steam from the gas. The patent application no. WO2017222236A1 also does not disclose movable power generation system that is fit in a compact unit for supplying power / electricity in all the required areas.

[0007] The patent application no. US11702919B2 titled "Adaptive mobile power generation system" discloses a mobile, adaptive, and reconfigurable power system to provide both mechanical and electric power for hydraulic fracturing operation. The power generation system may include a vehicle, a gas turbine, an electricity generator / generator and other devices / components. The entire power-load bearing platform is fixed on a mobile vehicle to support fracturing and electric demands at a well site. The second coupling is used to line the gas turbine and the electricity generator. The rotational power of the gas turbine is transmitted from the first casing to the second casing through second coupling thereby generating electricity by the electric generator. However, the patent application no. US11702919B2 does not disclose about using a sustainable natural resourcesand the production of gas used for generation of electricity. The patent application no. US11702919B2 does not specifically disclose any safety measures used during generation of electricity.

[0008] Therefore, there is a need for a system which solves the above defined problems and can provide efficient power generation enhancing overall efficiency and reducing environmental impact.SUMMARY

[0009] Embodiments of the present disclosure present technological improvements as solutions to one or more of the above-mentioned technical problems.

[0010] The present subject matter relates to an integrated system for power generation and method thereof. It is to be understood that this application is not limited to the particular model or system, or assembly described herein, as there can be multiple possible embodiments which are not expressly illustrated in the present subject matter. It is also to be understood that the terminology used in the description is for the purpose of describing the implementations or versions or embodiments only and is not intended to limit the scope of the present subject matter.

[0011] This summary is provided to introduce aspects related to an integrated system for efficient power generation using hydrogen (H2) gas or oxy hydrogen (HHO) gas. This summary is not intended to identify essential features of the claimed subject matter nor is it intended for use in determining or limiting the scope of the present subject matter.

[0012] In an embodiment, an autonomous power generation system is disclosed. The system includes an electricity generation system (EGS), a gasgenerator, a thermostat, a demister, a burner, a steam boiler, a steam turbine and an electricity generator. The electricity generation system (EGS) is arranged to generate an electric current. The EGS includes a solar panel or a vertical axis wind turbine (V AWT) / horizontal axis wind turbine (HAWT) or a combination of both (i.e., solar panel and VAWT / HAWT). The gas generator is arranged to produce hydrogen (H2) gas or a blend of hydrogen and oxygen (HHO) gases. The gas generator includes an Automatic Transmit Power Control (ATPC) power supply configured to stabilize power transmission under varying weather conditions, a current source configured to provide a consistent current during electrolysis and an electrolysis setup arranged to generate hydrogen (H2) or oxyhydrogen gas (HHO) by passing electric current through water. The thermostat for temperature regulation during gas generation. The demister for separating steam from the produced gas. The burner for combustion of the generated gas. The burner includes an injector, a flame stabilizer, a cooling mechanism, and a flame detector. The injector for efficient mixing of hydrogen and oxygen gases. The flame stabilizer for maintaining a stable combustion process. The cooling mechanism for recognizing intense heat generated by hydrogen flames. The flame detector includes a flame sensor for monitoring burner ignition and extinguishment. The steam boiler for converting water into high-pressure steam using the generated gas. The steam turbine for converting the high-pressure steam into mechanical energy. The electricity generator for converting mechanical energy into electrical energy.

[0013] In another embodiment, a method for autonomous power generation is disclosed. The method includes the step of generating electric current using an electricity generation system. The method includes the step of storing the generated electric current in a battery. The method includes thestep of producing hydrogen (H2) or oxyhydrogen (HHO) gas using a gas generator. The gas generator includes an Automatic Transmit Power Control (ATPC) power supply, a current source, and an electrolysis setup. The method further includes the step of stabilizing power transmission with the ATPC power supply under varying weather conditions. The method includes the step of providing a consistent current during electrolysis with the current source. The method includes the step of generating hydrogen (H2) or oxyhydrogen (HHO) gas by passing electric current through water in the electrolysis setup. The method includes the step of regulating temperature during gas generation using a thermostat. The method includes the step of separating steam from the produced gas with a demister. The method includes the step of combusting the generated gas with a burner. The method of working of burner includes the step of injecting generated gases efficiently using an injector, maintaining a stable combustion process with a flame stabilizer, recognizing and dissipating intense heat generated by hydrogen flames using a cooling mechanism, monitoring burner ignition and extinguishment with a flame detector comprising a flame sensor, and cutting off gas supply in case of flame instability or safety concerns using an emergency shutdown system. The method includes the step of converting water into high-pressure steam using the generated gas in a steam boiler. The method includes the step of converting the high-pressure steam into mechanical energy with a steam turbine. The method includes the step of converting mechanical energy into electrical energy with an electricity generator.BRIEF DESCRIPTION OF ACCOMPANYING DRAWINGS

[0014] The foregoing detailed description of embodiments is better understood when read in conjunction with the appended drawings. For thepurpose of illustrating the disclosure, there are shown in the present document example constructions of the disclosure; however, the disclosure is not limited to the specific system or method disclosed in the document and the drawings.

[0015] The detailed description is described with reference to the accompanying figures. In the figures, the left-most digit(s) of a reference number identifies the figure in which the reference number first appears. The same numbers are used throughout the drawings to reference features and modules.

[0016] Figure 1 illustrates a system of a gas generator, according to the disclosure of the present invention.

[0017] Figure 2 illustrates the combustion of the hydrogen (H2) or oxyhydrogen (HHO) gas by a gas burner, according to the disclosure of the present invention.

[0018] Figure 3 illustrates a system for generation of electricity, according to the disclosure of the present invention.

[0019] Figure 4 illustrates an exemplary embodiment of an integrated system for power generation, according to the disclosure of the present invention.

[0020] Figure 5 illustrates an exemplary implementation of a movable integrated system for power generation, according to the disclosure of the present invention.

[0021] It should be appreciated by those skilled in the art that any block diagrams herein represent conceptual views of illustrative methods embodying the principles of the present disclosure. Similarly, it will beappreciated that any flow charts, flow diagrams, and the like represent various processes which may be substantially represented in computer readable medium and so executed by a computer or processor, whether or not such computer or processor is explicitly shown.DETAILED DESCRIPTION

[0022] The invention will now be described with reference to the accompanying drawings and embodiments which do not limit the scope and ambit of the invention. The description provided is purely by way of example and illustration.

[0023] One or more embodiments are provided so as to thoroughly and fully convey the scope of the present invention to the person skilled in the art. Numerous details, are set forth, relating to specific components, and methods, to provide a complete understanding of embodiments of the present invention. It will be apparent to the person skilled in the art that the details provided in the embodiments should not be construed to limit the scope of the present invention. In some embodiments, well-known processes, well-known apparatus structures, and well-known techniques are not described in detail.

[0024] The terminology used, in the present invention, is only for the purpose of explaining a particular embodiment and such terminology shall not be considered to limit the scope of the present invention. As used in the present invention, the forms "a," "an," and "the" may be intended to include the plural forms as well, unless the context clearly suggests otherwise. The terms "comprises," "comprising," "including," and "having," are open ended transitional phrases and therefore specify the presence of stated features, integers, steps, operations, elements, modules, units and / orcomponents, but do not forbid the presence or addition of one or more other features, integers, steps, operations, elements, components, and / or groups thereof. The particular order of steps disclosed in the method and process of the present invention is not to be construed as necessarily requiring their performance as described or illustrated. It is also to be understood that additional or alternative steps may be employed.

[0025] The present disclosure encompasses various embodiments detailing an integrated system designed to optimize power generation through the utilization of Hydrogen (H2) gas or Oxy Hydrogen (HHO) gas. Oxy Hydrogen, commonly referred to as Brown's gas, represents a composite mixture of hydrogen and oxygen gases. This innovative system harnesses the unique properties inherent to H2 gas or HHO gas, characterized by its highly flammable nature, establishing its viability as a potent fuel source. Upon ignition, H2 gas or HHO gas manifests a high-temperature flame, showcasing its potential for applications requiring intense heat generation. Moreover, the inclusion of H2 gas or HHO gas in internal combustion engines is explored for its potential to enhance fuel efficiency, presenting a promising avenue for eco-friendly and energy-efficient power generation.

[0026] In one embodiment an integrated system for power generation and method thereof using hydrogen (H2) gas or oxyhydrogen (HHO) gas, the system supplies stabilized and constant electric current irrespective of the weather condition, producing hydrogen (H2) gas or oxyhydrogen (HHO) gas and generating electricity. Thereby supplying generated electricity to required sources.

[0027] In another embodiment, the integrated system for power generation is designed to be fit within a compact container which operates and transports as a self-sufficient unit for supplying electricity.

[0028] In an embodiment, an autonomous power generation system is disclosed. The system an electricity generation system (EGS), a gas generator, a thermostat, a demister, a burner, a steam boiler, a steam turbine and an electricity generator. The electricity generation system (EGS) is arranged to generate an electric current. The EGS includes a solar panel or a vertical axis wind turbine (V AWT) / horizontal axis wind turbine (HAWT) or a combination of both. The gas generator is arranged to produce hydrogen (H2) gas or a blend of hydrogen and oxygen (HHO) gases. The gas generator includes an Automatic Transmit Power Control (ATPC) power supply configured to stabilize power transmission under varying weather conditions, a current source configured to provide a consistent current during electrolysis and an electrolysis setup arranged to generate hydrogen (H2) or oxyhydrogen gas (HHO) by passing electric current through water. The thermostat for temperature regulation during gas generation. The demister for separating steam from the produced gas. The burner for combustion of the generated gas. The burner includes an injector, a flame stabilizer, a cooling mechanism, and a flame detector. The injector for efficient mixing of hydrogen and oxygen gases. The flame stabilizer for maintaining a stable combustion process. The cooling mechanism for recognizing intense heat generated by hydrogen flames. The flame detector includes a flame sensor for monitoring burner ignition and extinguishment. The steam boiler for converting water into high-pressure steam using the generated gas. The steam turbine for converting the high-pressure steam into mechanical energy. The electricity generator for converting mechanical energy into electrical energy.

[0029] In another implementation, the gas generator is hydrogen (H2) or oxyhydrogen (HHO) gas generator.

[0030] In another implementation, the system includes a battery for storing the generated electric current to provide independent and constant source of power to the gas generator.

[0031] In another implementation, the electrolysis setup includes a tank, at least two stainless steel plates and a tube indicator. The tank contains distilled water and electrolyte. The two stainless steel plates serve as anode and cathode. The tube indicator ensures uniform liquid environment surrounding both plates.

[0032] In another implementation, the electrolysis setup includes alkaline electrolyzers for enhanced efficiency in hydrogen production.

[0033] In another implementation, the electrolysis setup utilizes potassium hydroxide or sodium hydroxide as the electrolyte or Polymer Electrolyte Membrane (PEM).

[0034] In another implementation, a voltmeter is integrated into the current source for real-time monitoring of electrolysis operation.

[0035] In another implementation, a potentiometer is integrated into the current source for precise adjustments of current supply of the electrolysis operation.

[0036] In another implementation, a display system is arranged to display temperature and pressure and wherein a display system is a PLC display.

[0037] In another implementation, the demister is arranged to efficiently remove steam from the generated gas.

[0038] In another implementation, the cooling mechanism is arranged to dissipate heat generated by hydrogen flames and to ensure prolonged operational efficiency.

[0039] In another implementation, the burner includes an emergency shutdown system for safety.

[0040] In another implementation, the burner includes custom-designed nozzles to endure extreme temperatures, ensuring durability and resilience of the burner under challenging high-temperature conditions.

[0041] In another implementation, the burner utilizes flame stabilization techniques to maintain a stable combustion process so that the flame characteristics are consistent and controlled.

[0042] In another implementation, the burner is made of materials exhibiting both corrosion resistance and heat resistance to safeguard the structural integrity of the burner and prolonged and reliable operation under demanding combustion conditions.

[0043] In another implementation, the emergency shutdown system of the burner is activated based on real-time data received from the flame detector, and to ensure safety measures during gas combustion processes.

[0044] In another implementation, a movable transportation system operates and transports the power generation unit as a single and integrated power generation system.

[0045] In another implementation, the movable transportation system comprises wheels or tracks for transportation.

[0046] In another implementation, the autonomous power generation system is arranged to fit within a compact container.

[0047] In another implementation, the steam turbine (304) is customized at nearly 5 kW, 10 kW, 15 kW to up to 500 MW and above, or as per the industrial standards.

[0048] In another embodiment, a method for autonomous power generation is disclosed. The method includes the step of generating electric current using an electricity generation system. The method includes the step of storing the generated electric current in a battery. The method includes the step of producing hydrogen (H2) or oxyhydrogen (HHO) gas using a gas generator. The gas generator includes an Automatic Transmit Power Control (ATPC) power supply, a current source, and an electrolysis setup. The method further includes stabilizing power transmission with the ATPC power supply under varying weather conditions. The method includes the step of providing a consistent current during electrolysis with the current source. The method includes the step of generating hydrogen (H2) or oxyhydrogen (HHO) gas by passing electric current through water in the electrolysis setup. The method includes the step of regulating temperature during gas generation using a thermostat. The method includes the step of separating steam from the produced gas with a demister. The method includes the step of combusting the generated gas with a burner. The method of working of burner includes the step of injecting generated gases efficiently using an injector, maintaining a stable combustion process with a flame stabilizer, recognizing and dissipating intense heat generated by hydrogen flames using a cooling mechanism, monitoring burner ignition and extinguishment with a flame detector comprising a flame sensor, and cutting off gas supply in case of flame instability or safety concerns using an emergency shutdown system. The method includes the step ofconverting water into high-pressure steam using the generated gas in a steam boiler. The method includes the step of converting the high-pressure steam into mechanical energy with a steam turbine. The method includes the step of converting mechanical energy into electrical energy with an electricity generator.

[0049] In another implementation, the electrolysis setup includes alkaline electrolyzers, utilizing liquid alkaline solutions as electrolyte and operating at temperatures below 100°C for enhanced efficiency in hydrogen production.

[0050] In another implementation, the electrolysis setup utilizes potassium hydroxide or sodium hydroxide or PEM membrane as the electrolyte.

[0051] In another implementation, the method includes the step of monitoring the electrolysis operation in real-time using a voltmeter integrated into the current source.

[0052] In another implementation, the method includes the step of adjusting of current supply of the electrolysis operation using a potentiometer integrated into the current source.

[0053] In another implementation, the demister efficiently removes steam from the generated gas.

[0054] In another implementation, the method includes the step of activating the emergency shutdown system of the burner based on real-time data received from the flame detector.

[0055] In another implementation, the cooling mechanism of the burner dissipates heat generated by hydrogen flames.

[0056] In another implementation, the movable transportation system comprises wheels or tracks for transportation.

[0057] In another implementation, the autonomous power generation system used for supplying the generated electricity to network cell towers, power grids, various, factories, housing societies apartments, one or more data centers, and many other uses of electricity as per the demand.

[0058] Figure 1 illustrates a system of a gas generator (100), according to the present invention.

[0059] In an embodiment, a gas generator (100) is a hydrogen (H2) gas generator or an oxyhydrogen (HHO) gas generator. The oxy-hydrogen (HHO) gas generator (100) is designed to produce a precise blend of hydrogen and oxygen gases through the process of water electrolysis. Similarly in another embodiment, an hydrogen (H2) gas generator (100) is designed to produce carbon free hydrogen gas (H2) through the process of water electrolysis. The gas generator (100) comprises a sophisticated system, incorporating an Automatic Transmit Power Control (ATPC) power supply (102), a current source (104), and a well-structured electrolysis setup (106). The ATPC power supply (102) plays a pivotal role in ensuring the stability of power transmission under diverse weather conditions. Notably, this power supply unit is capable of delivering substantial power, exemplified by its capacity to provide up to 10A at a 12V rail and similar configurations. In the ATPC power supply system (102), the integration of a switch connecting the black and green wires to the motherboard facilitates seamless power control, contributing to user- friendly operation. Furthermore, the current source (104) which can be constant current source is meticulously configured to generate a consistent current, employing components such as the LM358 and others. This designenables the system to maintain a steady flow of current throughout the electrolysis process. Fine-tuning of the current is made possible through the incorporation of a potentiometer (POT RV1), allowing for precise adjustments. To monitor the current setting, a voltmeter is integrated, providing real-time feedback on the electrolysis operation and ensuring optimal performance.

[0060] The electric current generated by the system is subsequently directed towards the electrolysis setup (106), a crucial component in the process. This setup is meticulously crafted, featuring stainless steel plates serving as both anode and cathode. These plates are immersed in distilled water containing a small quantity of electrolyte, such as potassium hydroxide or sodium hydroxide. The configuration involves placing the anode and cathode plates within separate sections of a tank, connected by a small plastic tube (also referred to as tube indicator) to ensure a uniform liquid environment surrounding both plates i.e., anode and cathode plates, thereby carrying out the electrolysis process.

[0061] In an embodiment, the two stainless steel plates i.e., anode and cathode are placed in separate section of the tank immersed in the distilled water, a tube indicator is connected to separate section of the tank ensuring uniform liquid environment surrounding both the plates. Further, within the electrolysis setup (106), the electric current traverses through the water, instigating the process of water molecule splitting. At the anode plate, water molecules undergo a loss of electrons, leading to the release of oxygen gas (O2). Simultaneously, the cathode plate attracts these released electrons, facilitating the combination of hydrogen ions (protons) with electrons to form hydrogen gas (H2). This dynamic electrolysis process yields a final result of two parts hydrogen (H2) and one part oxygen (O2), underlining theefficiency and precision of the system in generating oxy-hydrogen gas through water electrolysis.The chemical equation for the electrolysis of water:2H2O(l)^2H2(g)+O2(g)

[0062] In another embodiment, the sourced electricity from the current source (104) is utilized to spilt the water molecules into hydrogen and oxygen within the electrolysis setup (106) for the purpose of electrolysis. Water molecules react at the anode to form oxygen and positively charged hydrogen ions (protons). The electrons flow through an external circuit and the hydrogen ions moves across the electrolyzers to the cathode, where the hydrogen ions will combine with electrons from the external circuit to form hydrogen (H2) gas. Thereby generating hydrogen (H2) gas i.e., carbon free in nature, having extensive usage and generated by a renewable resource.

[0063] The unit wherein the electrolysis process takes place, commonly referred to as an electrolyzer, plays a pivotal role in the described embodiments. Specifically, in one embodiment, a Polymer Electrolyte Membrane (PEM) electrolyzer is employed, utilizing a solid specialty plastic material as the electrolyte. This innovative PEM electrolyzer initiates the water reaction at the anode, leading to the formation of oxygen and positively charged hydrogen ions (protons). Simultaneously, electrons generated in this process flow through an external circuit. In the PEM electrolyzer, a critical phase involves the selective migration of hydrogen ions across the Polymer Electrolyte Membrane to the cathode. At the cathode, these ions combine with electrons, culminating in the production of hydrogen (H2) gas. Notably, PEM electrolyzers are designed to operate within a temperature range of approximately 70°C-90°C, ensuring optimalefficiency and performance. The chemical reactions occurring at the anode and cathode in the PEM electrolyzer are integral to the overall process. The detailed mechanisms of these reactions contribute to the precise and controlled generation of oxygen and hydrogen gases, highlighting the advanced and sophisticated nature of the electrolysis system employed in the disclosed embodiments. The chemical reaction for the anode and cathode is as:Anode Reaction: 2H?O O2 + 4H++ 4eCathode Reaction: 4H++ 4e 2H?

[0064] In an embodiment, the electrolysis system incorporates alkaline electrolyzers, which function by facilitating the transport of hydroxide ions (OH ) through the electrolyte from the cathode to the anode. The resulting reaction leads to the generation of hydrogen on the cathode side. Alkaline electrolyzers distinguish themselves by employing liquid alkaline solutions as their electrolyte. Operating at temperatures below 100°C, alkaline electrolyzers represent a significant advancement in electrolysis technology enhancing efficient hydrogen production. The underlying principle involves the controlled movement of hydroxide ions within the electrolyte, orchestrating the conversion of water into hydrogen. This distinct operational approach, utilizing liquid alkaline solutions, enhances the efficiency of the electrolysis process. The temperature range within which alkaline electrolyzers operate underscores their versatility and adaptability, contributing to their efficacy in hydrogen production for various applications.

[0065] In an embodiment, a solid oxide electrolyzers uses a solid ceramic material as the electrolyte. This solid ceramic material exhibits the unique property of selectively conducting negatively charged oxygen ions (O2),particularly at elevated temperatures. The operational principle involves steam interacting at the cathode, combining with electrons to produce hydrogen gas. Concurrently, oxygen ions traverse through the solid ceramic membrane, reacting at the anode to form oxygen gas. Distinguishing itself with its capacity to operate at higher temperatures, typically within the range of 700°C-800°C, the solid oxide electrolyzer showcases a robust performance in hydrogen generation. Notably, solid oxide electrolyzers incorporating proton-conducting ceramic electrolytes present an avenue for potentially lowering the operating temperature to a range of 500°C-600°C. The present invention enhances the efficiency and applicability of solid oxide electrolyzers, making them increasingly versatile in various settings for the eco-friendly production of hydrogen gas.

[0066] The electrolysis process, as described in the embodiments, yields hydrogen (H2) that is inherently free from carbon emissions. This carbon- free hydrogen represents a crucial aspect of the environmentally conscious design of the electrolyzers. The versatility of these electrolyzers is evident in their applicability, which spans both small-scale distributed hydrogen production and large-scale central facilities. In small-scale distributed scenarios, the electrolyzers can be strategically deployed to produce hydrogen on-site, catering to localized needs. This decentralized approach ensures efficiency and minimizes transportation-related carbon footprints. On the other hand, in large-scale central facilities, the electrolyzers can be integrated into renewable energy ecosystems, such as those harnessing solar or wind power. This integration aligns with the broader goal of transitioning towards sustainable energy sources, emphasizing the role of electrolyzers in facilitating the generation of carbon-free hydrogen on a larger scale. The adaptability of these electrolyzers to various scales andrenewable energy sources positions them as integral components in the drive towards greener and more sustainable hydrogen production.

[0067] The gas generator (100) features advanced temperature control mechanisms to ensure optimal performance, incorporating a thermostat for precise temperature regulation during the gas generation process. This temperature control not only enhances safety but also contributes to the overall efficiency of the gas generation (i.e., H2 gas or HHO gas). Additionally, the gas generator (100) is equipped with a demister, a sophisticated component designed to efficiently separate steam from the gas produced (i.e., H2 gas or HHO gas). This demisting functionality is crucial in maintaining the purity of the generated gas, as it effectively eliminates excess steam, ensuring that the final gas product is of high quality. The integration of such features underscores the attention to detail in the design of the gas generator (100), emphasizing its capability to produce gas with optimal efficiency and purity for various applications.

[0068] Figure 2 illustrates the combustion of the H2 gas or HHO gas by a gas burner (200), according to the present invention.

[0069] In an embodiment, the gas burner (200) is hydrogen (H2) gas burner or an oxyhydrogen (HHO) gas burner. The HHO gas burner (200) is designed for the efficient combustion of hydrogen and oxygen gases generated through the electrolysis process. In another embodiment, the H2 gas burner (200) is designed for the efficient and secure combustion of hydrogen (H2) gas which is also generated by the electrolysis process. This combustion is achieved by skillfully combining the gases with ambient air. The gas burner (200) (also referred as 'burner') encompasses several integral components, including an injector (202), a flame stabilizer (204), and a cooling mechanism (206), all contributing to the effective and safe operationof the burner (200). The injector (202) plays a critical role in ensuring the efficient mixing of hydrogen and oxygen gases during combustion of generated gas. Factors such as flow rates, pressure, and flame stability are meticulously considered in the design to optimize the combustion process. This attention to detail ensures not only efficient gas mixture but also contributes to the overall performance and safety of the gas burner (200). The gas burner (200) may be equipped with custom-designed and specialized nozzles specifically tailored to endure and manage extreme temperatures. This feature ensures the durability and resilience of the gas burner (200) under challenging high-temperature conditions. The flame stabilizer (204) uses techniques such as swirl or bluff-body stabilization to maintain a stable combustion process, for example a flashback arrestor. The flashback arrestor stops the flame or reverses the flow of gas back up into the burner, thereby protecting the gas burner (200) from damage or danger. These techniques enhance the reliability of the burner, ensuring consistent and controlled flame characteristics. Recognizing the intense heat generated by hydrogen flames, the cooling mechanism (206) is incorporated to protect the burner components. This cooling feature is essential for preventing overheating and maintaining the durability of the gas burner (200) under high-temperature conditions. To further enhance safety measures, the gas burner includes a flame detector (208) and an emergency shutdown system (210). There can be any other types of safety measure that can be implemented in the gas burner (200). The flame detector (208) is equipped with a flame sensor that monitors burner ignition and extinguishment. It actively detects the presence of flame, fire, or excess smoke, triggering appropriate responses. The emergency shutdown system (210) acts in response to the flame detector (208) and promptly cuts off the gas supply in cases of flame instability or other safety concerns, thereby prioritizing and maintaining safety during the operation of the gas burner (200).

[0070] The construction of the gas burner (200) involves the utilization of materials that exhibit both corrosion resistance and heat resistance. This choice is driven by the nature of the gases involved — hydrogen and oxygen— as well as the necessity for the gas burner (200) to withstand elevated temperatures generated during the combustion process. The selection of corrosion-resistant materials ensures the longevity and durability of the gas burner (200), given the potential corrosive effects of hydrogen and oxygen. Considering the high temperatures generated during combustion, heat-resistant materials are employed to safeguard the structural integrity of the gas burner (200). These materials are chosen for their ability to withstand and dissipate heat effectively, preventing any detrimental effects on the burner's performance over time. Furthermore, the meticulous selection of these materials is a critical aspect of the gas burner (200) design, ensuring not only the safe containment of gases but also the prolonged and reliable operation of the burner under the demanding conditions of combustion.

[0071] Figure 3 illustrates a system for generation of electricity, according to the present invention.

[0072] In an embodiment, for the generation of electricity from steam, the electricity generation system employs a comprehensive setup that encompasses a steam-based configuration. The key components of this system include a steam boiler (302), a customized steam turbine (304), and an electricity generator (306).

[0073] The steam boiler (302) plays a pivotal role in the electricity generation system, designed to convert water into steam. In this configuration, the gas burner exhaust (200), as depicted in Figure 2, supplies heat to the steam boiler's tank (302). The combusted gas is then directed tothe expansion tank of the steam boiler (302), where water circulates within tubes and is surrounded by the supplied gas (i.e., H2 gas or HHO gas). This strategic arrangement ensures efficient heat transfer and steam generation within the steam boiler (302). Constructed from materials capable of withstanding high temperatures and pressures, the steam boiler (302) produces high-temperature, high-pressure steam, contributing to power generation.

[0074] In one of the exemplary implementations of boiler (302), a fire tube boiler configuration is adopted, featuring multiple tubes through which water circulates and is surrounded by hot gases. Within this design, the hot gases traverse through ducts while the water remains confined within the tubes. This configuration facilitates efficient heat transfer from the hot gases to the circulating water. Such fire tube boilers find prevalent use in applications characterized by low-pressure conditions due to their inherent simplicity in design. The straightforward structure of fire tube boilers makes them suitable for various industries where uncomplicated, yet reliable steam generation is required. The tubing arrangement ensures that water is efficiently heated by the surrounding hot gases, making these boilers a practical choice for scenarios where simplicity, ease of maintenance, and cost-effectiveness are paramount considerations.

[0075] In another of the exemplary implementations of boiler (302), a water tube boiler design may be employed, wherein water is held within a network of tubes, while hot gases circulate around them. The heat transfer mechanism takes place through the walls of these tubes, allowing for efficient and controlled heating of the water. Such type of boiler design is particularly well-suited for high-pressure applications, making water tube boilers a preferred choice in power plant settings. The structural integrity of the tubes, coupled with the ability to withstand elevated pressures,positions water tube boilers as reliable and efficient solutions for industries and facilities requiring steam generation under demanding conditions. Their utilization in power plants underscores their capacity to handle rigorous operational parameters, emphasizing their significance in large- scale energy generation processes.

[0076] In another of the exemplary implementations of boiler (302), an internally fired boiler design may be employed. The internally fired boilers feature a design where the combustion chamber is situated within the confines of the boiler shell. In this configuration, fuel sources such as coal, oil, or gas are ignited within the combustion chamber, initiating the process of steam generation. Such boiler category includes notable examples like fire tube and water tube boilers, each demonstrating the internal firing principle. The combustion occurring within the boiler shell ensures a direct and controlled interaction between the fuel and the water, facilitating efficient heat transfer and steam production. Internally fired boilers find application in various industrial settings where the direct combustion of fuel within the boiler structure aligns with specific operational requirements.

[0077] In another of the exemplary implementations of boiler (302), an internally fired boiler may be employed. The Externally fired boilers are characterized by a design where the combustion chamber is distinct and separate from the boiler shell. In this configuration, the combustion of fuel takes place outside the confines of the boiler. The heat generated from the combustion process, carried by hot gases, is then transferred to the water inside the boiler. This indirect method of heat transfer allows for controlled and efficient steam generation within the boiler system. While externally fired boilers are less common compared to their internally fired counterparts, they do find specialized applications in specific industrialprocesses. Their unique design makes them suitable for scenarios where the separation of the combustion chamber from the boiler shell aligns with the specific operational and safety requirements of particular industrial applications.

[0078] Each category of steam boiler (302), mentioned above, comes with its own set of advantages, drawbacks, and specialized applications. Whether the purpose is power generation, heating, or industrial processes, selecting the appropriate type of boiler is crucial for ensuring optimal and efficient operation. The decision should be driven by a comprehensive understanding of the specific requirements and conditions of the intended application, allowing for the best possible balance between efficiency, reliability, and cost-effectiveness.

[0079] The steam turbine (304) (also referred as 'turbine') plays a pivotal role in the electricity generation system, receiving high-pressure steam from the steam boiler (302). This high-pressure steam is directed through the blades of the steam turbine (304) with considerable velocity, initiating a continuous spinning motion of the blades. This rotational movement effectively converts the energy contained in the steam into mechanical work / mechanical energy. The power generated by the steam turbine (304) undergoes further processing to produce electricity, marking the steam turbine (304) as one of the fundamental components in the industrial power generation process. Various types of steam turbines (304) cater to different industrial processes.

[0080] In one of the exemplary implementations of turbine (304), an impulse turbine is used which operates on the principle of converting kinetic energy into mechanical energy. This turbine comprises a row of nozzles followed by a row of blades. The process commences with projecting superheatedsteam at high velocity from fixed nozzles within the turbine's casing. As the steam strikes the blades, also known as buckets, the turbine shaft rotates, transforming kinetic energy into mechanical energy. Impulse turbines are commonly employed in small-scale applications and prove efficient for low-pressure steam conditions.

[0081] In another of the exemplary implementations of turbine (304), a reaction turbine can be used which operates on the combined forces of pressure and moving water, generates power. Here, steam expands both in velocity and pressure as it passes through the moving blades of the turbine, effectively converting both kinetic and potential energy into mechanical energy. Reaction turbines are suitable for higher-pressure steam and are frequently utilized in large-scale power plants.

[0082] In another of the exemplary implementations of turbine (304), a condensing turbine can be used which operates with a vacuum at the exhaust, allowing the steam to condense back into water. The condensing turbine is commonly used in power plants where maximum efficiency is desired. On the other hand, a non-condensing turbine discharges steam directly into the atmosphere without condensation. Non-condensing turbines are often applied in industrial processes where waste heat recovery is not a priority.

[0083] In another of the exemplary implementations of turbine (304), an extraction turbine can be used which features additional extraction points where steam is tapped for other processes, such as heating or feedwater heating. These turbines find utility in scenarios where steady power generation and steam extraction at fixed pressure are required, showcasing their versatility in combined heat and power systems.

[0084] In the present embodiment, steam turbine (304) within the system has been subject to customization to meet specific requirements. Its capacity can be tailored to various specifications, with options available for customization at nearly 5 kW, 10 kW, 15 kW to upto 500 MW and above, or in accordance with the specific demands outlined by industrial standards. This flexibility in customization allows the steam turbine (304) to be seamlessly integrated into diverse industrial contexts, ensuring that the electricity generation system can be precisely tuned to meet the unique power output needs of different applications or industries. By offering such customization options, the system enhances its versatility and adaptability, accommodating a range of power generation requirements within the parameters of industrial standards.

[0085] Further, the steam turbine (304) is connected to the electricity generator (306). The electricity generator (306) plays a pivotal role in converting the mechanical or fuel-based power generated by the steam turbine (304) into electrical power, commonly known as electricity. This conversion process is governed by the rating and design parameters specific to the overall system. The electricity generator (306) is designed to produce electrical power in alignment with the established rating and design parameters, ensuring efficient and reliable performance. The energy or electrical power generated by the electricity generator (306) is then directed to the required destinations. These destinations can span a range of endusers, including domestic, commercial, and industrial customers. By distributing the produced electrical power to these diverse sources, the electricity generator (306) facilitates the utilization of the generated energy in various applications, contributing to the broader electrical needs of different sectors.

[0086] Figure 4 illustrates an exemplary embodiment of an integrated system for power generation, according to the present invention.

[0087] In an exemplary embodiment, an integrated system for power generation is disclosed. The system includes an electricity generation system (EGS) (402), an electrolysis setup (positive and negative charge) ((106) as shown in figure 1), a battery (404) with a Gas Generator (406), a gas burner (408), a boiler (410), a steam turbine (412), a power plant generator (also known as 'electricity generator' or 'generator') (414) and various use of the electricity generated by generator (414) such as network cell tower (416), Power Grid (418), Factories (420), Housing societies apartments (422), Data Centers (424), and many other use of electricity (426) as per the demand.

[0088] In an embodiment, the electricity generation system (EGS) (402) is arranged for generating electricity and to supply electricity or electric current to the required sources. The electricity generation system (EGS) includes a solar panel (402A) or a vertical axis wind turbine (VAWT) / horizontal axis wind turbine (HAWT) (402B) or a combination of both (i.e., the solar panel (402A) and VAWT / HAWT (402B)).

[0089] In the exemplary embodiment, when the sunlight strikes the solar panel (402A), the solar panel (402A) generates an electric current which can be stored in the battery (404) to provide constant source of power to the gas generator (406). The VAWT / HAWT (402B) is arranged to generate an electric current and to supply the generated electric current to the gas generator (406) (hydrogen (H2) gas generator or oxyhydrogen (HHO)gas generator). The VAWT (402B) is oriented perpendicular to the flow of the wind for generating electricity. In the VAWT (402B) a rotor shaft of the turbine is arranged transverse to the wind, and all the other components arearranged at the base of the VAWT (402B). The VAWT (402B) includes a blades, a hub, a rotor shaft, a VW AT generator and a nacelle. The blades rotate around the rotor shaft to convert a wind power to a mechanical energy, the hub holds the blades thereby connecting the blades to the rotor shaft, the gearbox increase the speed of the blades rotation and supplies power to the VW AT generator, the VAWT generator converts mechanical energy into electrical energy (electrical current) and the nacelle operates the wind turbine efficiently. The HAWT (402B) is oriented parallel to the flow of the wind which is arranged for generating electricity. In the HAWT (402B), a rotor shaft of the turbine and a HWAT generator is arranged at the top of a tower. The HAWT (402B) includes a blades, a nacelle, a hub, a rotor shaft, a gear box, a HWAT generator and a yaw system. The blades remove the kinetic energy (KE) of wind & change it to mechanical energy, the yaw system keeps the rotor shaft facing into the wind as the wind direction changes, the hub holds the blades and connects the rotor shaft and the blade, the gear box increases the rotational speed of the blades and supply power to the HWAT generator and the HWAT generator changes the energy from mechanical to electrical (electrical current). The generated electrical current via VAWT / HAWT (402B) is stored in the battery to provide constant electric current to the gas generator (406). In an embodiment, battery (404) can be a Lithium Iron Phosphate battery, a graphene battery or the same. In a preferred embodiment the battery (404) is the graphene battery. The graphene battery has higher capacity, fast charging, light weight and is of high temperature range.

[0090] The generated electric current is supplied to the electrolysis setup for water electrolysis process. The electric current is supplied to the water through an anode and a cathode splitting water into their constituent gases. The anode attracts water molecules, losing electrons and release oxygen gas(O2) and the cathode attracts these electrons, allowing hydrogen ions (protons) to combine with electrons and form hydrogen gas (H2). Further, by mixing the hydrogen and oxygen gases, oxy hydrogen (HHO) gas can also be formed. Furthermore, while generation of H2 gas or HHO gas a thermostat is utilized for controlling temperature and for producing efficient gas. Further a demister is also incorporated to separate steam from generated gas.

[0091] The generated gas may be transferred to the biogas burner (herein referred to as burner) (408). The burner (408) efficiently burns the generated gas that are produced through water electrolysis. The burner (408) combines generated gas with ambient air for efficient combustion by controlling velocity and temperature. The boiler (410) receives the gas burner (408) exhaust. The combusted gas is supplied to the expansion tank of the boiler (410), where the water is circulated within the tubes of the boiler (410) and the combusted gas flows around them. The boiler (410) converts water into high-temperature, high-pressure steam for generating power.

[0092] The energy conversion of HHO gas energy to steam can be described by the following formula: E=AHfxn;

[0093] where E is the energy released, AHf is the enthalpy of formation of water, and n is the number of moles of HHO gas.

[0094] The enthalpy of formation of water is the amount of heat released when one mole of water is formed from its elements. For HHO gas, which is a mixture of hydrogen and oxygen in a 2:1 ratio, the enthalpy of formation of water is -285.8 kj / mol.

[0095] The number of moles of HHO gas can be calculated from the ideal gas law: n=RTPV

[0096] where P is the pressure, V is the volume, R is the gas constant, and T is the temperature of the gas.

[0097] Therefore, the energy conversion of HHO gas energy to steam depends on the pressure, volume, and temperature of the gas, as well as the enthalpy of formation of water. The higher the pressure and volume, and the lower the temperature, the more energy is released.

[0098] The steam turbine (412) receives high pressure steam driven from the boiler (410). The high-pressure steam flows through the blades of the steam turbine (412), striking and spinning the blades and thus the steam turbine (412) converts the steam energy into mechanical energy. The steam turbine is connected to the power plant generator (414) which generates electricity or power corresponding to the mechanical energy generated by the steam turbine (412). The power plant generator (414) converts a form of energy (like mechanical energy) into electricity, it produces electricity in proportion of the rating and design parameters of the integrated power generation system. In an embodiment, the generated steam in the boiler (410) and the generated energy in the steam turbine (412) are recycled to the boiler (410) to maintain a constant temperature of water within the boiler (410) throughout the combustion process. Thereby optimizing energy and enhancing working efficiency leading to generation of high-temperature, high-pressure steam for generating power. This process leads to uninterrupted generation of electricity.

[0099] In an embodiment, the display system (not shown in figure) is arranged to display the temperature and pressure of the overall powergeneration system (i.e., gas generator (406), burner (408), boiler (410), steam turbine (412)) in order to continuously monitor the system thereby maintaining the optimum temperature and pressure throughout the power generation.

[0100] The electricity generated from the power plant generator (414) is supplied to various places such as the network cell tower (416), the power grid (418), various factories (420), housing societies apartments (422), one or more data centers (424), and many other uses of electricity (426) as per the demand. Further, the output of the power plant generator (414) can also be connected to the gas generator (406) so that the entire system can work without any external power requirement. The generated electricity may also be used for other work purposes which may not be listed above.

[0101] Figure 5 illustrates an exemplary implementation of a movable integrated system for power generation (500), according to the disclosure of the present invention.

[0102] In the present exemplary implementation, the entire system as described above, comprising the integrated power generation system encompassing a gas generator (406), a burner (408), a boiler (410), a steam turbine (412), and an electricity generator (414), is configured to fit within a compact container (502). In such implementation, one of the output of the electricity generator (414) is connected to gas generator (406) so that the complete system may run without the use of external power requirements as well as other outputs of the electricity generator (414) can be provided to various industries or for personal use as per the requirements and demands. This containerized system (also referred to as movable integrated system or movable transportation system) (500) can be securely attached to various modes of transportation, including but not limited to tempo, SUV car, mini-truck, tractor, or any other transport medium. The resulting movable integrated system for power generation (500) exhibits self-sufficiency and versatility, allowing it to be conveniently transported to meet specific electricity demands in urban areas or remote locations, resembling a genset in its adaptability and deployment capability. The movable integrated system (500) includes wheels or tracks for easy and secure transportation and supply of electricity to the required locations.

[0103] This compact and movable configuration as described above can transform the integrated power generation system into a versatile solution known as the Movable Integrated System for Power Generation (500). The mobility of the system offers inherent advantages, as it operates as a self-sufficient unit capable of meeting specific electricity requirements in both urban and remote areas. Resembling a genset in its adaptability, this movable integrated system for power generation (500) can be dynamically transported to locations where immediate and tailored electricity solutions are needed. This feature presents a significant advancement in addressing diverse electricity demands across varying geographical and infrastructural landscapes.

[0104] Traditionally when hydrogen was used for energy production or generation, the hydrogen was initially produced at different locations by electrolysis and then later the produced hydrogen was transported to the energy generation site carefully, maintaining the safety. This process highlights the dependency of energy generation on the transportation of produced hydrogen. The present invention inculcates the production of hydrogen (H2) or oxyhydrogen (HHO) gas by electrolysis and generation of energy / electricity / electric current all in a single unit i.e., an integrated system for power generation. In the present invention, the production of hydrogen or oxyhydrogen is continuous, leading to a continuous cycle ofpower generation i.e., generation of energy / electricity / electric current, without being dependent and simultaneously eliminating the possibility of delayed operation.

[0105] The present single unit of power generation (as shown in figure 4) i.e., an integrated system for power generation includes an electricity generation system (402), a battery (404), a gas generator (406), a thermostat, a demister, a burner (408), a steam boiler (410), a steam turbine (412) and an electricity generator (414). The electricity generation (402) system includes a solar panel (402A) and / or a vertical axis wind turbine / horizontal axis wind turbine (402B) to generate an electric current, further storing the generated electric current in the battery (404). The generated electric current / electricity is supplied to the gas generator (406), thereby carrying out the process of electrolysis (106) (as shown in figure 1) for producing hydrogen (H2) or oxyhydrogen (HHO) gas. The temperature during gas generation in the gas generator (406) is regulated by the thermostat and steam is separated from the produced gas (H2 or HHO) by the demister. The generated gas is supplied to the burner (408) for combustion of the generated gas. The boiler (410) uses the combusted gas for converting water into the high pressure steam. The steam turbine (412) converts the high pressure steam into mechanical energy. The electricity generator (414) converts the mechanical energy into electrical energy. The steam and energy i.e., generated by the boiler (410) and the steam turbine (412) is also supplied back to the boiler (410) to constantly maintain the temperature within the boiler (410), thereby maintaining the continuous process for electricity generation without any barrier. The generated electricity is used by factories, apartments, network cell tower and the same.

[0106] The foregoing description of the invention has been set merely to illustrate the invention and is not intended to be limiting. Sincemodifications of the disclosed embodiments incorporating the substance of the invention may occur to person skilled in the art, the invention should be construed to include everything within the scope of the invention.

Claims

I Claim:

1. An autonomous power generation system comprising: an electricity generation system (EGS) (402) arranged to generate an electric current and, wherein the EGS (402) comprising a solar panel (402A), a vertical axis wind turbine (VAWT) or horizontal axis wind turbine (HAWT) (402B) or a combination of both; a gas generator (100) arranged to produce hydrogen (H2) gas or a blend of hydrogen and oxygen (HHO) gases, the gas generator (100) comprising: an Automatic Transmit Power Control (ATPC) power supply (102); a current source (104), and an electrolysis setup (106); wherein the ATPC power supply (102) configured to stabilize power transmission under varying weather conditions; wherein the current source (104) configured to provide a consistent current during electrolysis, and wherein the electrolysis setup (106) arranged to generate hydrogen (H2) or oxyhydrogen gas (HHO) by passing electric current through water; a thermostat for temperature regulation during gas generation; a demister for separating steam from the produced gas; a burner (200) for combustion of the generated gas, wherein the burner (200) comprising: an injector (202) for efficient mixing of hydrogen and oxygen gases; a flame stabilizer (204) for maintaining a stable combustion process; a cooling mechanism (206) for recognizing intense heat generated by hydrogen flames, anda flame detector (208) comprising a flame sensor for monitoring burner ignition and extinguishment; a steam boiler (302) for converting water into high-pressure steam using the generated gas; a steam turbine (304) for converting the high-pressure steam into mechanical energy; and an electricity generator (306) for converting mechanical energy into electrical energy.

2. The autonomous power generation system as claimed in claim 1, wherein the gas generator (100) is hydrogen (H2) or oxy hydrogen (HHO) gas generator.

3. The autonomous power generation system as claimed in claim 1, wherein the system comprising a battery (404) for storing the generated electric current to provide independent and constant source of power to the gas generator (100).

4. The autonomous power generation system as claimed in claim 1, wherein the electrolysis setup (106) comprising: a tank containing distilled water and electrolyte; at least two stainless steel plates serving as anode and cathode, and a tube indicator ensuring uniform liquid environment surrounding both plates.

5. The autonomous power generation system as claimed in claim 1, wherein the electrolysis setup (106) comprises alkaline electrolyzers for enhanced efficiency in hydrogen production.

6. The autonomous power generation system as claimed in claim 1, wherein the electrolysis setup (106) utilizes potassium hydroxide or sodium hydroxide as the electrolyte or Polymer Electrolyte Membrane (PEM).

7. The autonomous power generation system as claimed in claim 1, further comprising a voltmeter integrated into the current source (104) for realtime monitoring of electrolysis operation.

8. The autonomous power generation system as claimed in claim 1, further comprising a potentiometer, wherein the potentiometer integrated into the current source (104) for precise adjustments of current supply of the electrolysis operation.

9. The autonomous power generation system as claimed in claim 1, wherein a display system is arranged to display temperature and pressure and wherein a display system is a PLC display.

10. The autonomous power generation system as claimed in claim 1, wherein the demister is arranged to efficiently remove steam from the generated gas.

11. The autonomous power generation system of claim 1, wherein the cooling mechanism (206) is arranged to dissipate heat generated by hydrogen flames and to ensure prolonged operational efficiency.

12. The autonomous power generation system as claimed in claim 1, wherein the burner (200) comprises an emergency shutdown system (210) for safety.

13. The autonomous power generation system as claimed in claim 1, wherein the burner (200) comprises custom-designed nozzles to endure extreme temperatures, ensuring durability and resilience of the burner (200) under challenging high-temperature conditions.

14. The autonomous power generation system as claimed in claim 1, wherein the burner (200) utilizes flame stabilization techniques to maintain astable combustion process so that the flame characteristics are consistent and controlled.

15. The autonomous power generation system as claimed in claim 1, wherein the burner (200) is made of materials exhibiting both corrosion resistance and heat resistance to safeguard the structural integrity of the burner (200) and prolonged and reliable operation under demanding combustion conditions.

16. The autonomous power generation system of claim 1, wherein the emergency shutdown system (210) of the burner (200) is activated based on real-time data received from the flame detector (208), and to ensure safety measures during gas combustion processes.

17. The autonomous power generation system as claimed in claim 1, wherein a movable transportation system (500) for operating and transporting the power generation unit as a single and integrated power generation system.

18. The autonomous power generation system as claimed in claim 1 and 17, wherein the movable transportation system (500) comprises wheels or tracks for transportation.

19. The autonomous power generation system as claimed in claim 1, wherein the autonomous power generation system arranged to fit within a compact container (502).

20. The autonomous power generation system as claimed in claim 1, wherein the steam turbine (304) is customized at nearly 5 kW, 10 kW, 15 kW to up to 500 MW and above, or as per the industrial standards.

21. A method for autonomous power generation, comprising the steps of: generating electric current using an electricity generation system (402); storing the generated electric current in a battery (404); producing hydrogen (H2) or oxyhydrogen (HHO) gas using a gas generator (100), wherein the gas generator (100) comprising: i. an Automatic Transmit Power Control (ATPC) power supply (102), ii. a current source (104), and hi. an electrolysis setup (106); stabilizing power transmission with the ATPC power supply (102) under varying weather conditions; providing a consistent current during electrolysis with the current source (104); generating hydrogen (H2) or oxyhydrogen (HHO) gas by passing electric current through water in the electrolysis setup (106); regulating temperature during gas generation using a thermostat; separating steam from the produced gas with a demister; combusting the generated gas with a burner (200) comprising; i. injecting generated gases efficiently using an injector (202); ii. maintaining a stable combustion process with a flame stabilizer (204); hi. recognizing and dissipating intense heat generated by hydrogen flames using a cooling mechanism (206); iv. monitoring burner ignition and extinguishment with a flame detector (208) comprising a flame sensor, and v. cutting off gas supply in case of flame instability or safety concerns using an emergency shutdown system (210); converting water into high-pressure steam using the generated gas in a steam boiler (302);converting the high-pressure steam into mechanical energy with a steam turbine (304); and converting mechanical energy into electrical energy with an electricity generator (306).

22. The method as claimed in claim 21, wherein the electrolysis setup (106) comprises alkaline electrolyzers, utilizing liquid alkaline solutions as electrolyte and operating at temperatures below 100°C for enhanced efficiency in hydrogen production.

23. The method as claimed in claim 21, wherein the electrolysis setup (106) utilizes potassium hydroxide or sodium hydroxide or PEM membrane as the electrolyte.

24. The method as claimed in claim 21, further comprising monitoring the electrolysis operation in real-time using a voltmeter integrated into the current source (104).

25. The method as claimed in claim 21 further comprising adjusting of current supply of the electrolysis operation using a potentiometer integrated into the current source (104).

26. The method as claimed in claim 21, wherein the demister efficiently removes steam from the generated gas.

27. The method as claimed in claim 21, further comprising activating the emergency shutdown system (210) of the burner (200) based on real-time data received from the flame detector (208).

28. The method as claimed in claim 21, wherein the cooling mechanism29. The method as claimed in claim 21, wherein the movable transportation system (500) comprises wheels or tracks for transportation.

30. The method as claimed in claim 21, wherein the autonomous power generation system is used for supplying the generated electricity to network cell towers, power grids, various, factories, housing societies apartments, one or more data centers, and many other uses of electricity as per the demand.

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