1. A system for solar energy conversion using photocatalysts, comprising: a light-harvesting unit constructed to capture and concentrate incoming solar radiation; a photocatalytic reactor chamber operatively connected to said light-harvesting unit, receiving concentrated solar radiation; a series of photocatalyst substrates strategically positioned within said reactor chamber, activated upon exposure to the concentrated solar radiation; an electron transport layer adjacent to said photocatalyst substrates, facilitating efficient transfer of excited electrons generated by the photocatalysts; and an energy conversion and storage module electrically connected to said electron transport layer, transforming captured electron flow into usable energy.

2. The system of claim 1, further comprising: a cooling mechanism integrated within said reactor chamber, controlling and maintaining optimal operational temperatures during the photocatalytic reaction.

3. The system of claim 1, wherein: said photocatalyst substrates incorporate nanostructured designs, enhancing the surface area and reactivity, thus optimizing the solar energy conversion efficiency.

4. The system of claim 1, further incorporating: an automated tracking mechanism affixed to said light-harvesting unit, enabling it to adjust its position following the sun's trajectory, ensuring optimal solar radiation capture throughout the day.

5. The system of claim 1, wherein: said energy conversion and storage module includes a combination of supercapacitors and batteries, ensuring immediate usage and storage of converted energy, respectively.

6. A method for solar energy conversion using photocatalysts, comprising the steps of: capturing incoming solar radiation via a dedicated light-harvesting unit; concentrating and directing the captured solar radiation into a photocatalytic reactor chamber; activating a series of photocatalyst substrates within said chamber upon exposure to concentrated solar radiation, initiating electron excitation; channelling the excited electrons through an adjacent electron transport layer; and converting and storing the resultant electron flow into usable energy via an interconnected energy conversion and storage module.

7. The method of claim 6, further including: continuously monitoring and adjusting the reactor chamber's temperature via an integrated cooling mechanism, ensuring optimal conditions for the photocatalytic reactions.

8. The method of claim 6, wherein: employing photocatalyst substrates with nanostructured designs during the solar energy conversion, maximizing the efficiency of the photocatalytic process.

9. The method of claim 6, involving: utilizing an automated tracking mechanism to adjust the orientation of the light-harvesting unit, following the sun's trajectory, ensuring consistent and maximum solar radiation capture.

10. The method of claim 6, wherein: channelling converted energy into a combination of supercapacitors for immediate utilization and batteries for storage, optimizing the allocation of harvested energy. PHOTOCATALYSTS FOR SOLAR ENERGY CONVERSION Abstract A system designed for superior solar energy conversion harnessing photocatalysts is delineated. At its forefront, a light-harvesting unit is engineered to adeptly capture and intensify incoming solar radiation. This concentrated solar flux is then directed into a dedicated photocatalytic reactor chamber. Within this chamber, a meticulously arranged ensemble of photocatalyst substrates stands ready, becoming invigorated upon receiving the concentrated solar payload. Adjacently, an electron transport layer is poised, ensuring the swift and efficient conduit of the excited electrons birthed by the activated photocatalysts. Bringing this energy conversion full circle, an energy conversion and storage module, seamlessly electrically tethered to the transport layer, adeptly transmutes the harnessed electron current into a reservoir of utilizable energy, signifying a quantum leap in photocatalytic solar energy solutions. , Claims:Claims :

1. A system for solar energy conversion using photocatalysts, comprising: a light-harvesting unit constructed to capture and concentrate incoming solar radiation; a photocatalytic reactor chamber operatively connected to said light-harvesting unit, receiving concentrated solar radiation; a series of photocatalyst substrates strategically positioned within said reactor chamber, activated upon exposure to the concentrated solar radiation; an electron transport layer adjacent to said photocatalyst substrates, facilitating efficient transfer of excited electrons generated by the photocatalysts; and an energy conversion and storage module electrically connected to said electron transport layer, transforming captured electron flow into usable energy.

2. The system of claim 1, further comprising: a cooling mechanism integrated within said reactor chamber, controlling and maintaining optimal operational temperatures during the photocatalytic reaction.

3. The system of claim 1, wherein: said photocatalyst substrates incorporate nanostructured designs, enhancing the surface area and reactivity, thus optimizing the solar energy conversion efficiency.

4. The system of claim 1, further incorporating: an automated tracking mechanism affixed to said light-harvesting unit, enabling it to adjust its position following the sun's trajectory, ensuring optimal solar radiation capture throughout the day.

5. The system of claim 1, wherein: said energy conversion and storage module includes a combination of supercapacitors and batteries, ensuring immediate usage and storage of converted energy, respectively.

6. A method for solar energy conversion using photocatalysts, comprising the steps of: capturing incoming solar radiation via a dedicated light-harvesting unit; concentrating and directing the captured solar radiation into a photocatalytic reactor chamber; activating a series of photocatalyst substrates within said chamber upon exposure to concentrated solar radiation, initiating electron excitation; channelling the excited electrons through an adjacent electron transport layer; and converting and storing the resultant electron flow into usable energy via an interconnected energy conversion and storage module.

7. The method of claim 6, further including: continuously monitoring and adjusting the reactor chamber's temperature via an integrated cooling mechanism, ensuring optimal conditions for the photocatalytic reactions.

8. The method of claim 6, wherein: employing photocatalyst substrates with nanostructured designs during the solar energy conversion, maximizing the efficiency of the photocatalytic process.

9. The method of claim 6, involving: utilizing an automated tracking mechanism to adjust the orientation of the light-harvesting unit, following the sun's trajectory, ensuring consistent and maximum solar radiation capture.

10. The method of claim 6, wherein: channelling converted energy into a combination of supercapacitors for immediate utilization and batteries for storage, optimizing the allocation of harvested energy.

Description:PHOTOCATALYSTS FOR SOLAR ENERGY CONVERSION
Field of the Invention
[0001] The present invention is situated within the interdisciplinary realm of materials science and renewable energy technologies. Specifically, it relates to the development and application of photocatalysts tailored for the conversion of solar energy. This invention introduces a class of photocatalytic materials designed to harness the power of sunlight, facilitating efficient and sustainable energy conversion processes. By leveraging the unique properties of these photocatalysts, the invention aims to address challenges associated with energy capture, storage, and utilization. The presented disclosure herein holds the potential to revolutionize solar-based energy systems, offering enhanced efficiency, scalability, and environmental compatibility in the direct conversion of sunlight to usable energy forms or chemical fuels.
Background
[0002] The background description includes information that may be useful in understanding the present invention. It is not an admission that any of the information provided herein is prior art or relevant to the presently claimed invention, or that any publication specifically or implicitly referenced is prior art.
[0003] The growing concerns over fossil fuel depletion and environmental issues have prompted a global shift towards sustainable and renewable energy sources. Solar energy, abundant and clean, offers a promising solution. One way to harness solar energy is through the use of photocatalysts, which facilitate solar-driven reactions that convert light energy into useful forms, such as electricity or chemical fuels. Photocatalysts play a pivotal role in solar energy conversion processes, enabling advancements in various fields including solar cells and solar-driven chemical reactions.
[0004] Photocatalysis involves using light energy to initiate chemical reactions by stimulating the photocatalyst's electrons. When photons from sunlight interact with the photocatalyst's surface, electron-hole pairs are generated, leading to redox reactions. This process is exploited in solar energy conversion applications to generate electricity, produce hydrogen from water, and carry out other chemical transformations.
[0005] Several photocatalytic materials have been studied for solar energy conversion:
[0006] Titanium Dioxide (TiO2) is a widely studied and commercially used photocatalyst due to its stability and efficiency. It is employed in dye-sensitized solar cells and in water splitting for hydrogen production.
[0007] Metal-Organic Frameworks (MOFs) are versatile materials with tunable structures. They exhibit high surface areas and can be tailored for specific solar-driven chemical reactions, such as carbon dioxide reduction.
[0008] Perovskite photocatalysts have gained attention for their exceptional light absorption properties. Perovskite solar cells, a variant of these materials, have shown rapid efficiency improvements.
[0009] Organic polymers with semiconducting properties have been explored for solar energy conversion due to their flexibility, light weight, and ease of processing.
[00010] Numerous research efforts and applications showcase the potential of photocatalysts for solar energy conversion:
[00011] Researchers at the University of Tokyo developed a photocatalytic system using a co-catalyst with a TiO2 photocatalyst to enhance hydrogen production from water splitting. This approach demonstrated improved efficiency and stability, bringing us closer to the goal of sustainable hydrogen fuel production.
[00012] A collaborative effort between the University of California, Berkeley, and Lawrence Berkeley National Laboratory focused on developing highly efficient photocatalysts for solar water splitting. They utilized earth-abundant materials to create a composite that could achieve visible light-driven water splitting for hydrogen production.
[00013] Perovskite solar cells have gained remarkable attention for their rapid efficiency improvement. Oxford PV, a company specializing in perovskite solar technology, set a record for the highest efficiency in a perovskite solar cell, demonstrating the commercial potential of these materials.
[00014] Researchers from the University of Illinois at Urbana-Champaign explored the use of metal-organic frameworks for photocatalytic carbon dioxide reduction. By carefully designing the MOF structure, they achieved selective and efficient conversion of carbon dioxide to valuable chemicals.
[00015] Photocatalysts have been employed for environmental applications, such as the degradation of organic pollutants. A study from Zhejiang University demonstrated the use of TiO2-based photocatalysts to efficiently degrade pharmaceutical pollutants in water under sunlight.
[00016] In conclusion, photocatalysts have proven to be a vital tool for harnessing solar energy and driving various solar-driven reactions. These materials enable advancements in solar cells, hydrogen production, carbon dioxide reduction, and environmental cleanup.
[00017] All references, including publications, patent applications, and patents, cited herein are hereby incorporated by reference to the same extent as if each reference were individually and specifically indicated to be incorporated by reference and were set forth in its entirety herein.
Summary
[00018] Various objects, features, and advantages of the disclosed subject matter can be more fully appreciated with reference to the following detailed description of the disclosed subject matter when considered in connection with the following drawings, in which like reference numerals identify like elements.
[00019] The present invention is situated within the interdisciplinary realm of materials science and renewable energy technologies. Specifically, it relates to the development and application of photocatalysts tailored for the conversion of solar energy. This invention introduces a class of photocatalytic materials designed to harness the power of sunlight, facilitating efficient and sustainable energy conversion processes. By leveraging the unique properties of these photocatalysts, the invention aims to address challenges associated with energy capture, storage, and utilization. The disclosure presented herein holds the potential to revolutionize solar-based energy systems, offering enhanced efficiency, scalability, and environmental compatibility in the direct conversion of sunlight to usable energy forms or chemical fuels.
[00020] Introduced solar energy conversion system that has been described here presents an advanced and efficient solution for harnessing solar power through the utilization of photocatalysts. This comprehensive system ingeniously integrates multiple components to maximize the capture, conversion, and storage of solar energy.
[00021] The system's foundation lies in its light-harvesting unit, which is meticulously designed to capture and concentrate incoming solar radiation. This concentrated solar radiation is then directed into a photocatalytic reactor chamber. This chamber, directly connected to the light-harvesting unit, serves as the core of the energy conversion process.
[00022] Within the reactor chamber, a series of strategically positioned photocatalyst substrates come into play. When exposed to the concentrated solar radiation, these substrates become activated, initiating the crucial process of solar energy conversion. Adjacent to these photocatalyst substrates, an electron transport layer facilitates the efficient transfer of excited electrons generated by the photocatalysts.
[00023] The transformed flow of electrons is directed to an energy conversion and storage module, where the captured energy is effectively converted into usable power. This module represents the pivotal point where the potential of solar energy is realized and transformed for practical applications.
[00024] To ensure optimal performance, the system incorporates a cooling mechanism within the reactor chamber. This mechanism regulates and maintains optimal operational temperatures during the photocatalytic reaction, enhancing the overall efficiency of energy conversion.
[00025] The photocatalyst substrates themselves boast nanostructured designs, which significantly enhance their surface area and reactivity. This design optimization translates to increased solar energy conversion efficiency, making the system even more effective at utilizing incoming solar radiation.
[00026] The system's adaptability is showcased through the inclusion of an automated tracking mechanism affixed to the light-harvesting unit. This tracking mechanism enables the unit to dynamically adjust its position to follow the trajectory of the sun. This feature guarantees that optimal solar radiation capture is maintained throughout the day, maximizing energy collection potential.
[00027] For immediate usage and efficient energy storage, the energy conversion and storage module combines the advantages of supercapacitors and batteries. Supercapacitors provide instant access to the converted energy, catering to immediate energy demands, while batteries ensure the storage of surplus energy for later use.
[00028] In conclusion, the system for solar energy conversion through photocatalysts embodies a comprehensive approach to sustainable energy production. By combining light-harvesting, photocatalytic reactions, electron transport, energy conversion, and storage mechanisms, this system optimally captures and transforms solar radiation into usable power. Its adaptability, efficiency-enhancing features, and energy storage capabilities make it a promising contender in the realm of solar energy technology.
[00029] The method for solar energy conversion using photocatalysts presents systematic approach to harnessing the power of the sun for practical use. This method encompasses a series of well-defined steps that collectively transform incoming solar radiation into valuable and usable energy.
[00030] The process commences with the dedicated light-harvesting unit, designed to efficiently capture and gather incoming solar radiation. This unit serves as the gateway to the solar energy conversion process, ensuring that the maximum amount of solar radiation is harnessed.
[00031] The captured solar radiation is then concentrated and directed into a photocatalytic reactor chamber. In this chamber, a carefully arranged series of photocatalyst substrates await exposure to the concentrated solar radiation. As the substrates are exposed, they become activated, initiating the excitation of electrons within them. This electron excitation is a pivotal step in the conversion of solar energy.
[00032] To efficiently channel the excited electrons, an adjacent electron transport layer comes into play. This layer facilitates the smooth and effective transfer of the excited electrons, ensuring that their potential energy is harnessed to its fullest extent.
[00033] The culmination of this process is the energy conversion and storage module. This module transforms the flowing electrons into usable energy, which can be employed for various applications. To optimize the allocation of harvested energy, the method employs a combination of supercapacitors and batteries. Supercapacitors provide immediate access to the converted energy, catering to instantaneous energy needs, while batteries store excess energy for future use.
[00034] To maintain optimal conditions for the photocatalytic reactions, the method includes an integrated cooling mechanism within the reactor chamber. This mechanism continuously monitors and adjusts the chamber's temperature, guaranteeing that the photocatalytic reactions occur under the most favorable conditions.
[00035] The method further leverages the advantages of nanostructured photocatalyst substrates during the solar energy conversion phase. These substrates feature enhanced surface areas and reactivity, resulting in increased efficiency of the photocatalytic process.
[00036] Adaptability and optimization are evident in the inclusion of an automated tracking mechanism. This mechanism ensures that the orientation of the light-harvesting unit follows the sun's trajectory throughout the day. This dynamic adjustment maximizes solar radiation capture, making the energy conversion process more efficient.
[00037] In conclusion, the method for solar energy conversion using photocatalysts showcases an advanced and efficient strategy for turning sunlight into usable energy. Its systematic steps, combined with cooling mechanisms, nanostructured substrates, automated tracking, and intelligent energy allocation, make it a promising avenue for sustainable energy production.
Brief Description of the Drawings
[00038] The features and advantages of the present disclosure would be more clearly understood from the following description taken in conjunction with the accompanying drawings in which:
[00039] FIG. 1 represents an architectural overview of a system for solar energy conversion using photocatalysts, according to some embodiments of the present disclosure.
[00040] FIG. 2 shows an exemplary detailed schematic flow diagram of a method for solar energy conversion using photocatalysts, according to some embodiments of the present disclosure.
Detailed Description
[00041] The following is a detailed description of exemplary embodiments to illustrate the principles of the invention. The embodiments are provided to illustrate aspects of the invention, but the invention is not limited to any embodiment. The scope of the invention encompasses numerous alternatives, modifications and equivalent; it is limited only by the claims.
[00042] In view of the many possible embodiments to which the principles of the present discussion may be applied, it should be recognized that the embodiments described herein with respect to the drawing figures are meant to be illustrative only and should not be taken as limiting the scope of the claims. Therefore, the techniques as described herein contemplate all such embodiments as may come within the scope of the following claims and equivalents thereof.
[00043] 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 use of the same reference numbers in different instances in the description and the figures may indicate similar or identical items.
[00044] Pursuant to the "Detailed Description" section herein, whenever an element is explicitly associated with a specific numeral for the first time, such association shall be deemed consistent and applicable throughout the entirety of the "Detailed Description" section, unless otherwise expressly stated or contradicted by the context.
[00045] The present invention is situated within the interdisciplinary realm of materials science and renewable energy technologies. Specifically, it relates to the development and application of photocatalysts tailored for the conversion of solar energy. This invention introduces a class of photocatalytic materials designed to harness the power of sunlight, facilitating efficient and sustainable energy conversion processes. By leveraging the unique properties of these photocatalysts, the invention aims to address challenges associated with energy capture, storage, and utilization. The presented herein holds the potential to revolutionize solar-based energy systems, offering enhanced efficiency, scalability, and environmental compatibility in the direct conversion of sunlight to usable energy forms or chemical fuels.
[00046] Pursuant to the "Detailed Description" section herein, whenever an element is explicitly associated with a specific numeral for the first time, such association shall be deemed consistent and applicable throughout the entirety of the "Detailed Description" section, unless otherwise expressly stated or contradicted by the context.
[00047] The concept of using photocatalysts for solar energy conversion has gained significant attention as researchers and engineers seek ways to maximize the efficiency of solar energy capture and conversion. This system 100 comprises various components that collaboratively facilitate the intricate process of harvesting solar energy and converting it into usable electricity.
[00048] In the pursuit of sustainable energy sources, solar energy has emerged as a significant contender due to its virtually limitless potential and environmentally friendly nature. One promising approach to harnessing solar energy involves the development of systems that utilize photocatalysts to convert sunlight into usable energy. This intricate system 100 consists of several interconnected components that work synergistically to capture, convert, and store solar energy efficiently. By combining technologies, such a system addresses both the need for renewable energy sources and the challenge of energy storage, contributing to a more sustainable future.

[00049] According to a pictorial portrayal in FIG. 1, illustrating an architectural setup of the system 100 for solar energy conversion using photocatalysts, comprising a light-harvesting unit 102 constructed to capture and concentrate incoming solar radiation, a photocatalytic reactor chamber 104 operatively connected to said light-harvesting unit, receiving concentrated solar radiation, a series of photocatalyst substrates 106 strategically positioned within said reactor chamber, activated upon exposure to the concentrated solar radiation, an electron transport layer 108 adjacent to said photocatalyst substrates, facilitating efficient transfer of excited electrons generated by the photocatalysts, and an energy conversion and storage module 110 electrically connected to said electron transport layer, transforming captured electron flow into usable energy.
[00050] At the heart of the solar energy conversion system 100 lies the light-harvesting unit. This unit is meticulously constructed to capture and concentrate incoming solar radiation. The primary objective of this unit is to maximize the amount of sunlight that can be utilized for energy conversion. To achieve this, advanced materials with high light-absorption properties are employed. These materials are strategically arranged to optimize solar radiation capture and minimize energy losses due to reflection or scattering.
[00051] Directly connected to the light-harvesting unit is the photocatalytic reactor chamber. This chamber plays a pivotal role in the energy conversion process by receiving concentrated solar radiation from the light-harvesting unit. The chamber's design is carefully engineered to ensure efficient light absorption and minimal energy loss. It is constructed with materials that can withstand high levels of solar radiation and extreme temperatures. The solar radiation intensity is greatly amplified within the chamber, creating an environment conducive to the activation of photocatalysts.
[00052] Positioned strategically within the reactor chamber are a series of photocatalyst substrates. These substrates are engineered to respond to concentrated solar radiation by initiating photocatalytic reactions. A key characteristic of these substrates is their incorporation of nanostructured designs. These nanostructures enhance the substrates' surface area and reactivity, optimizing the efficiency of solar energy conversion. Examples of commonly used photocatalysts include titanium dioxide (TiO2) and semiconducting materials like zinc oxide (ZnO).
[00053] Adjacent to the photocatalyst substrates is the electron transport layer. This layer plays a vital role in facilitating the efficient transfer of excited electrons generated by the photocatalysts. Upon exposure to solar radiation, the photocatalysts become excited, releasing electrons. The electron transport layer ensures that these electrons are promptly and effectively transported to the next stage of the energy conversion process. This layer is carefully engineered to minimize electron losses and enhance electron mobility.
[00054] The culmination of the solar energy conversion process occurs in the energy conversion and storage module. This module is electrically connected to the electron transport layer and is responsible for transforming the captured electron flow into usable energy. It achieves this transformation through a combination of intricate processes involving voltage manipulation, current regulation, and energy conversion techniques. Depending on the specific application, the converted energy can be used to power various devices or be fed into the grid.
[00055] To maintain optimal operational temperatures during the photocatalytic reaction, a cooling mechanism is integrated within the reactor chamber. This mechanism prevents overheating and ensures that the photocatalytic reactions occur under controlled conditions. By regulating temperatures, the cooling mechanism contributes to the overall system's stability and longevity.
[00056] To enhance the overall efficiency of the solar energy conversion system, an automated tracking mechanism is affixed to the light-harvesting unit. This mechanism enables the unit to adjust its position based on the trajectory of the sun. By continuously aligning itself with the sun's position, the system ensures maximum solar radiation capture throughout the day. This adaptive feature optimizes energy capture and boosts the system's overall performance.
[00057] The energy conversion and storage module incorporate a combination of supercapacitors and batteries. Supercapacitors are utilized to ensure the immediate availability of converted energy. These devices have high power density and can rapidly store and release energy. On the other hand, batteries are employed for long-term energy storage. They offer high energy density and are capable of storing energy over extended periods, making them ideal for supplying energy during nighttime or cloudy periods.
[00058] Referring to one or more preceding embodiments, the system 100 for solar energy conversion using photocatalysts represents a remarkable integration of advanced materials, engineering principles, and technologies. By meticulously capturing and concentrating incoming solar radiation, initiating photocatalytic reactions, facilitating efficient electron transport, and converting captured electron flow into usable energy, this system addresses both the challenges of solar energy conversion and storage. With additional features such as cooling mechanisms, automated tracking, and advanced energy storage configurations, the system exemplifies a comprehensive approach to harnessing solar energy in a sustainable and effective manner. As research and development in this field continue, further advancements are anticipated, leading to even greater efficiency and broader adoption of this transformative technology.
[00059] The present invention pertains to a method 200 for converting solar energy into usable electricity through the utilization of photocatalysts. By capturing, concentrating, and directing incoming solar radiation, this method 200 initiates a series of photocatalytic reactions, leading to the generation of excited electrons. These electrons are then channelled through an electron transport layer and transformed into usable energy, which can be promptly used or stored for future consumption.
[00060] Figuratively depicted in FIG. 2, representing a flow diagram of the method 200 for solar energy conversion using photocatalysts, comprising the steps of (at step 202) capturing incoming solar radiation via a dedicated light-harvesting unit, (at step 204) concentrating and directing the captured solar radiation into a photocatalytic reactor chamber, (at step 206) activating a series of photocatalyst substrates within said chamber upon exposure to concentrated solar radiation, initiating electron excitation, (at step 208) channelling the excited electrons through an adjacent electron transport layer, and (at step 210) converting and storing the resultant electron flow into usable energy via an interconnected energy conversion and storage module.
[00061] The method 200 commences with the dedicated light-harvesting unit, which is designed to capture incoming solar radiation. The unit is composed of advanced materials with high light-absorption capabilities. Examples of such materials include photovoltaic cells, reflective surfaces, and light-concentrating lenses. These components work in unison to maximize the amount of sunlight collected, allowing for efficient energy conversion.
[00062] Once solar radiation is captured, it is concentrated and directed into a photocatalytic reactor chamber. This chamber is carefully designed to optimize the delivery of concentrated solar radiation to the photocatalyst substrates. The concentration of solar radiation is achieved through the use of lenses, mirrors, or other optical elements that focus sunlight onto the reactor chamber. This concentrated solar radiation enhances the activation of photocatalysts, facilitating the subsequent electron excitation process.
[00063] Within the reactor chamber, a series of photocatalyst substrates are positioned strategically. These substrates are engineered to respond to concentrated solar radiation by initiating photocatalytic reactions. Nanostructured designs are incorporated into the photocatalyst substrates to maximize their surface area and reactivity. This optimization enhances the efficiency of the photocatalytic process, promoting the generation of excited electrons. These excited electrons are critical for the subsequent energy conversion steps.
[00064] In yet another embodiment, the excited electrons generated through the photocatalytic reactions are channeled through an adjacent electron transport layer. This layer serves as a conduit for the efficient transfer of electrons. It is engineered to minimize electron losses and facilitate rapid electron movement. The electron transport layer plays a crucial role in maintaining the integrity of the electron flow, ensuring that the captured energy is efficiently transported to the next stage of the process.
[00065] In yet another embodiment, the final step of the method 200 involves the conversion and storage of the excited electron flow. The energy conversion and storage module, interconnected with the electron transport layer, transforms the electron flow into usable energy. This conversion is accomplished through voltage manipulation, current regulation, and other energy conversion techniques. The resultant energy can be harnessed to power various devices or integrated into the grid for broader use.
[00066] In some embodiments, the method includes the continuous monitoring and adjustment of the reactor chamber's temperature. An integrated cooling mechanism ensures that optimal conditions are maintained for the photocatalytic reactions. By preventing overheating and maintaining a controlled environment, the cooling mechanism contributes to the overall efficiency and reliability of the energy conversion process.
[00067] To further optimize the efficiency of the photocatalytic process, certain embodiments of the method involve the utilization of photocatalyst substrates with nanostructured designs. These designs increase the surface area available for photocatalytic reactions, leading to enhanced electron generation. By maximizing the efficiency of the photocatalytic reactions, this approach contributes to higher overall energy conversion rates.
[00068] In select embodiments, an automated tracking mechanism is employed to adjust the orientation of the light-harvesting unit. This mechanism enables the unit to follow the trajectory of the sun throughout the day, ensuring consistent and maximum solar radiation capture. This adaptive feature optimizes the efficiency of energy capture, which is particularly valuable in regions with variable solar exposure.
[00069] In certain embodiments, the method 200 involves the allocation of converted energy into a combination of supercapacitors and batteries. Supercapacitors offer immediate energy availability due to their high-power density, making them suitable for rapid energy release. Batteries, on the other hand, provide long-term storage capabilities due to their high energy density. By utilizing both supercapacitors and batteries, the method optimizes the allocation and utilization of the harvested energy.
[00070] Thus, the disclosed embodiments of the method 200 for solar energy conversion using photocatalysts offer a comprehensive approach to harnessing solar energy for practical use. By capturing, concentrating, and directing solar radiation, initiating photocatalytic reactions, and efficiently channelling and converting excited electrons, this method exemplifies a sophisticated solution to the challenges of solar energy conversion and storage. Additional features, such as integrated cooling mechanisms, nanostructured photocatalyst substrates, automated tracking mechanisms, and advanced energy storage configurations, enhance the efficiency and effectiveness of the method. As solar energy technologies continue to evolve, the disclosed method stands as a promising avenue towards a more sustainable energy future.
[00071] Further, while operations are depicted in a particular order, this should not be understood as requiring that such operations be performed in the particular order shown or in sequential order, or that all illustrated operations be performed, to achieve desirable results. In certain circumstances, multitasking and parallel processing may be advantageous. Likewise, while several specific implementation details are contained in the above discussions, these should not be construed as limitations on the scope of the subject matter described herein, but rather as descriptions of features that may be specific to particular embodiments. Certain features that are described in this specification in the context of separate embodiments can also be implemented in combination in a single embodiment. Conversely, various features that are described in the context of a single embodiment can also be implemented in multiple embodiments separately or in any suitable sub-combination. Moreover, although features may be described above as acting in certain combinations and even initially claimed as such, one or more features from a claimed combination can in some cases be excised from the combination, and the claimed combination may be directed to a sub-combination or variation of a sub-combination.
[00072] The term “memory,” as used herein relates to a volatile or persistent medium, such as a magnetic disk, or optical disk, in which a computer can store data or software for any duration. Optionally, the memory is non-volatile mass storage such as physical storage media. Furthermore, a single memory may encompass and in a scenario wherein computing system is distributed, the processing, memory and/or storage capability may be distributed as well.
[00073] Throughout the present disclosure, the term ‘server’ relates to a structure and/or module that include programmable and/or non-programmable components configured to store, process and/or share information. Optionally, the server includes any arrangement of physical or virtual computational entities capable of enhancing information to perform various computational tasks.
[00074] Throughout the present disclosure, the term “network” relates to an arrangement of interconnected programmable and/or non-programmable components that are configured to facilitate data communication between one or more electronic devices and/or databases, whether available or known at the time of filing or as later developed. Furthermore, the network may include, but is not limited to, one or more peer-to-peer network, a hybrid peer-to-peer network, local area networks (LANs), radio access networks (RANs), metropolitan area networks (MANS), wide area networks (WANs), all or a portion of a public network such as the global computer network known as the Internet, a private network, a cellular network and any other communication system or systems at one or more locations.
[00075] Throughout the present disclosure, the term “process”* relates to any collection or set of instructions executable by a computer or other digital system so as to configure the computer or the digital system to perform a task that is the intent of the process.
[00076] Throughout the present disclosure, the term ‘Artificial intelligence (AI)’ as used herein relates to any mechanism or computationally intelligent system that combines knowledge, techniques, and methodologies for controlling a bot or other element within a computing environment. Furthermore, the artificial intelligence (AI) is configured to apply knowledge and that can adapt it-self and learn to do better in changing environments. Additionally, employing any computationally intelligent technique, the artificial intelligence (AI) is operable to adapt to unknown or changing environment for better performance. The artificial intelligence (AI) includes fuzzy logic engines, decision-making engines, preset targeting accuracy levels, and/or programmatically intelligent software.

Claims
I/We Claim:
1. A system for solar energy conversion using photocatalysts, comprising:
a light-harvesting unit constructed to capture and concentrate incoming solar radiation;
a photocatalytic reactor chamber operatively connected to said light-harvesting unit, receiving concentrated solar radiation;
a series of photocatalyst substrates strategically positioned within said reactor chamber, activated upon exposure to the concentrated solar radiation;
an electron transport layer adjacent to said photocatalyst substrates, facilitating efficient transfer of excited electrons generated by the photocatalysts; and
an energy conversion and storage module electrically connected to said electron transport layer, transforming captured electron flow into usable energy.
2. The system of claim 1, further comprising:
a cooling mechanism integrated within said reactor chamber, controlling and maintaining optimal operational temperatures during the photocatalytic reaction.
3. The system of claim 1, wherein:
said photocatalyst substrates incorporate nanostructured designs, enhancing the surface area and reactivity, thus optimizing the solar energy conversion efficiency.
4. The system of claim 1, further incorporating:
an automated tracking mechanism affixed to said light-harvesting unit, enabling it to adjust its position following the sun's trajectory, ensuring optimal solar radiation capture throughout the day.
5. The system of claim 1, wherein:
said energy conversion and storage module includes a combination of supercapacitors and batteries, ensuring immediate usage and storage of converted energy, respectively.
6. A method for solar energy conversion using photocatalysts, comprising the steps of:
capturing incoming solar radiation via a dedicated light-harvesting unit;
concentrating and directing the captured solar radiation into a photocatalytic reactor chamber;
activating a series of photocatalyst substrates within said chamber upon exposure to concentrated solar radiation, initiating electron excitation;
channelling the excited electrons through an adjacent electron transport layer; and
converting and storing the resultant electron flow into usable energy via an interconnected energy conversion and storage module.
7. The method of claim 6, further including:
continuously monitoring and adjusting the reactor chamber's temperature via an integrated cooling mechanism, ensuring optimal conditions for the photocatalytic reactions.
8. The method of claim 6, wherein:
employing photocatalyst substrates with nanostructured designs during the solar energy conversion, maximizing the efficiency of the photocatalytic process.
9. The method of claim 6, involving:
utilizing an automated tracking mechanism to adjust the orientation of the light-harvesting unit, following the sun's trajectory, ensuring consistent and maximum solar radiation capture.
10. The method of claim 6, wherein:
channelling converted energy into a combination of supercapacitors for immediate utilization and batteries for storage, optimizing the allocation of harvested energy.

PHOTOCATALYSTS FOR SOLAR ENERGY CONVERSION
Abstract
A system designed for superior solar energy conversion harnessing photocatalysts is delineated. At its forefront, a light-harvesting unit is engineered to adeptly capture and intensify incoming solar radiation. This concentrated solar flux is then directed into a dedicated photocatalytic reactor chamber. Within this chamber, a meticulously arranged ensemble of photocatalyst substrates stands ready, becoming invigorated upon receiving the concentrated solar payload. Adjacently, an electron transport layer is poised, ensuring the swift and efficient conduit of the excited electrons birthed by the activated photocatalysts. Bringing this energy conversion full circle, an energy conversion and storage module, seamlessly electrically tethered to the transport layer, adeptly transmutes the harnessed electron current into a reservoir of utilizable energy, signifying a quantum leap in photocatalytic solar energy solutions.
, Claims:Claims
I/We Claim:
1. A system for solar energy conversion using photocatalysts, comprising:
a light-harvesting unit constructed to capture and concentrate incoming solar radiation;
a photocatalytic reactor chamber operatively connected to said light-harvesting unit, receiving concentrated solar radiation;
a series of photocatalyst substrates strategically positioned within said reactor chamber, activated upon exposure to the concentrated solar radiation;
an electron transport layer adjacent to said photocatalyst substrates, facilitating efficient transfer of excited electrons generated by the photocatalysts; and
an energy conversion and storage module electrically connected to said electron transport layer, transforming captured electron flow into usable energy.
2. The system of claim 1, further comprising:
a cooling mechanism integrated within said reactor chamber, controlling and maintaining optimal operational temperatures during the photocatalytic reaction.
3. The system of claim 1, wherein:
said photocatalyst substrates incorporate nanostructured designs, enhancing the surface area and reactivity, thus optimizing the solar energy conversion efficiency.
4. The system of claim 1, further incorporating:
an automated tracking mechanism affixed to said light-harvesting unit, enabling it to adjust its position following the sun's trajectory, ensuring optimal solar radiation capture throughout the day.
5. The system of claim 1, wherein:
said energy conversion and storage module includes a combination of supercapacitors and batteries, ensuring immediate usage and storage of converted energy, respectively.
6. A method for solar energy conversion using photocatalysts, comprising the steps of:
capturing incoming solar radiation via a dedicated light-harvesting unit;
concentrating and directing the captured solar radiation into a photocatalytic reactor chamber;
activating a series of photocatalyst substrates within said chamber upon exposure to concentrated solar radiation, initiating electron excitation;
channelling the excited electrons through an adjacent electron transport layer; and
converting and storing the resultant electron flow into usable energy via an interconnected energy conversion and storage module.
7. The method of claim 6, further including:
continuously monitoring and adjusting the reactor chamber's temperature via an integrated cooling mechanism, ensuring optimal conditions for the photocatalytic reactions.
8. The method of claim 6, wherein:
employing photocatalyst substrates with nanostructured designs during the solar energy conversion, maximizing the efficiency of the photocatalytic process.
9. The method of claim 6, involving:
utilizing an automated tracking mechanism to adjust the orientation of the light-harvesting unit, following the sun's trajectory, ensuring consistent and maximum solar radiation capture.
10. The method of claim 6, wherein:
channelling converted energy into a combination of supercapacitors for immediate utilization and batteries for storage, optimizing the allocation of harvested energy.