QUANTUM-STRUCTURED AEROMAGNETIC FARMING SYSTEM PROVIDING HIGH EFFICIENCY AND ADAPTIVE GROWTH.

Abstract

The invention relates to a system that enables the three-dimensional suspension of plant roots and the adjustment of the magnetic field according to the growth stage, thanks to hexagonal grid arrays made of bismut-doped graphene aerogel. This is achieved through AI-supported control mechanisms that adjust the magnetic field in real time to ensure optimal root positioning. Furthermore, it utilizes electromagnetic coils operating in the 1–10 kHz frequency range to ionize nutrient aerosols and trap them around the roots using Lorentz forces, thus achieving a nutrient uptake efficiency of 99.5%. Additionally, it utilizes cadmium-free InP / ZnS quantum dots to convert near-380 nm UV light into efficient photons between 450–660 nm, increasing photosynthetic efficiency by 40% through CRISPR-modified photoreceptors.

Description

1 TARIFF QUANTUM STRUCTURED PROVIDING HIGH EFFICIENCY AND ADAPTIVE GROWTH. Aeromagnetic Farming System TECHNICAL AREA 5 The invention aims to overcome the productivity and adaptation problems encountered in current agricultural technologies. by targeting dynamic diamagnetic lattice arrays, electromagnetic pulsed aeroponic systems and A new generation of agriculture through the integration of quantum dot controlled phototropism technologies. quantum-structured aeromagnetic platforms that provide high efficiency and adaptive growth. It offers an agricultural system (Quantum Structured Aeromagnetic Agricultural System-QSAFS). 10 The invention is particularly useful for plants thanks to hexagonal lattice arrays produced from bismut-doped graphene aerogel. the roots remain suspended in 3D and the magnetic field adjusts according to the growth stage. made possible by AI-powered control mechanisms that adjust in real time. A magnetic field that ensures the roots are in the optimal position, with a frequency of 1–10 kHz. Electromagnetic coils operating within the Lorentz force ionize food aerosols. by trapping nutrients around the roots, thus achieving a 99.5% nutrient retention efficiency, Furthermore, cadmium-free InP / ZnS quantum dots can absorb near-UV light from 380 nm to 450–660 nm. by efficiently converting photons between them via CRISPR-modified photoreceptors It relates to a system that increases photosynthetic efficiency by 40%. 20 PREVIOUS TECHNIQUE Today, vertical farming and aeroponic systems mostly utilize static magnetic levitation. methods range from traditional water spraying techniques to fixed LED lighting solutions 25 It is based on static magnetic levitation systems, using pyrolytic graphite plates. Constant magnetic fields are created; however, this method is not suitable for different growth stages of plants. inability to adapt leads to the roots becoming entangled over time and disrupts optimal nutrient distribution. This leads to obstruction. In these static systems, the magnetic field density is constant. Because it is held in place, it has flexibility against dynamic changes occurring in plant development. This is not possible. In addition, the materials and configurations used in current technologies... The methods are inadequate for 3D root positioning, which requires high precision. remaining incompatible with the natural growth pattern of the roots and nutrient transfer Efficiency is decreasing. 35 In traditional aeroponic systems, nutrient aerosols are sprayed onto plant roots. The dispersal of food due to gravity leads to water and nutrient waste. This situation results in food... 2 This prevents the homogeneous distribution of aerosols, leading to nutrient overload in some areas and others. In these regions, it leads to malnutrition problems; consequently, the productivity of plants and Healthy development is seriously negatively affected. Efficient use of water and nutrients. Failure to maintain the light within the target area is another significant factor limiting system efficiency. Fixed LED However, the lighting technology used was fixed-spectrum, which could not meet the photoperiodic needs of plants. because it uses light sources, especially considering genetic and environmental differences. because it cannot contain it, photosynthetic activity cannot be brought to an optimal level. It has disadvantages. Constant spectral output activates the specialized photoreceptors of plants. It is insufficient in this regard, which leads to the expected increase in photosynthetic efficiency. It cannot provide this. Furthermore, fixed LED systems are far from efficient in terms of energy consumption. This negatively impacts overall system costs. According to publication number RU2290775C1, found as a result of research in the literature, the seeds... The invention refers to a device used in the pre-planting process. The invention is the body of the device. It is surrounded by windings made of diamagnetic material and powered by a pulsed current source. 15 Two static horns are mounted on the upper part of the body and are fed by an ozonizer. Ultraviolet light. The radiation source is placed between the static horns and the radiation wavelength is 0.365 It is microns. Studies have shown that vertical farming and aeroponics, which are widely used today, are 20 systems, permanent magnetic levitation techniques, conventional water jet methods and fixed Structuring it using spectrum LED lighting solutions, three-dimensional view of plant roots This results in water and nutrient waste reaching up to 70%, due to the water remaining suspended in the air, preventing homogeneous nutrient and water distribution. It has been observed that these systems have serious shortcomings, such as limited photosynthetic efficiency. For example, stable magnetic fields created with pyrolytic graphite plates can affect the varying growth of plants. Failure to adapt to the developmental stages leads to root entanglement and disruptions in nutrient transfer. Meanwhile, conventional spraying methods utilize the effect of gravity to disperse food aerosols. This leads to dispersal, reducing productivity, while fixed LED lighting negatively impacts the genetic makeup of plants. It is unable to meet its photoperiodic needs. Ultimately, the problems mentioned above, which cannot be solved with the current technology, are related to the technical aspects. This has made it necessary to make an innovation in the field. A BRIEF DESCRIPTION OF THE INVENTION The main purpose of the invention is to adapt existing vertical farming and aeroponic systems to permanent magnetic levitation 35 techniques, conventional water spraying methods and fixed-spectrum LED lighting The challenges it faces due to dynamic root positioning, homogeneous nutrient distribution, water wastage, and limited resources. 3 To overcome fundamental shortcomings such as photosynthetic efficiency, bismuth-doped graphene aerogel was developed. The produced hexagonal dynamic diamagnetic grid arrays are adjustable between 0.1–1.5 Tesla. AI-powered magnetic field control, electromagnetic operating at 1–10 kHz frequency. Performed with a pulsed aeroponic unit and cadmium-free InP / ZnS quantum dots. By integrating phototropism technology, the three-dimensional suspension of plant roots is achieved. 5 By providing an innovative agricultural approach that maximizes productivity through optimal nutrient and water uptake. The goal is to establish the platform. Another aim of the invention is to integrate advanced nanotechnology and artificial intelligence-supported manufacturing processes. by doing so, thanks to dynamic diamagnetic field adjustments and a modular, scalable structure, 10 plants can instantly adapt to different growth stages, optimize root development, and an adaptive farming system that enables precise nutrient delivery (±0.1 mL / plant / hour) The goal is to develop this approach using AI algorithms fed with sensor data, for each plant. By making real-time interventions according to the requirements, system performance is improved. It aims for continuous improvement. 15 Another aim of the invention is to enable, thanks to integrated sensors and AI-powered control mechanisms, a system that can respond instantly to environmental changes and sudden nutrient or water needs of plants Minimizing imbalances and root causes that may arise through dynamic adjustments within it, A self-optimizing, fault-tolerant, and continuously self-healing 20 The goal is to create agricultural infrastructure. Another aim of the invention is to reduce water consumption by 98% by completely eliminating land use. Optimizing with high efficiency, minimizing energy consumption and reducing carbon footprint The goal is to offer a system designed with environmental sustainability principles in mind. This feature is particularly important in 25 urban farming practices, resource-constrained regions, and those aiming for sustainable food production. It has the potential to revolutionize projects. Another aim of the invention is to make it suitable for laboratories thanks to its modular design and ease of integration. It can be applied flexibly, from small-scale projects to large-scale urban farming practices, 30 high production capacity (theoretically 450 kg / m² / year), low energy consumption (35 kWh / m² / year) and future agricultural technologies that enable commercial scalability with high efficiency The goal is to develop a new generation platform that offers economic and technical advantages. The present invention, developed to fully achieve all the purposes mentioned above, is 35 Quantum-based aeromagnetic farming system, one of the smart farming systems of the future. (QSAFS) is an innovative agricultural platform developed on the basis of multiple components. 4 The system maximizes root development, nutrient transfer, and photosynthetic efficiency of plants. To extract it, dynamic magnetic support, ionized nutrient aerosols, and quantum dots are used. A new generation of agricultural solutions by combining advanced technologies such as assisted lighting. This system offers a dynamic diamagnetic lattice component, consisting of bismut-doped graphene. Magnetic grid arrays made of aerogel, with magnetic fields adjustable between 0.1–1.5 Tesla. by creating spaces that allow plant roots to hang in three dimensions and ensure optimal nutrient and water uptake. It provides electromagnetic pulsed aeroponic unit components, 1–10 kHz. Electromagnetic nutrient aerosol generators operating at a specific frequency, powered by tungsten electrodes. Ionized food aerosols are controlled within a 5 cm radius using Halbach array magnetic traps. This enables 99.5% retention and homogeneous distribution in the field. Quantum dot 10 Within the scope of the supported phototropism unit component [3], cadmium-free InP / ZnS quantum dots Through this method, spectral conversion of near 380 nm UV light to the 450–660 nm range is achieved. and photosynthetic efficiency by integrating into CRISPR-modified plant photoreceptors It is increased by up to 40%. In addition, within the scope of the electronic control component, integrated hall sensor networks, edge AI real-time data processing unit and dynamic feedback loops with 15 The magnetic field, nutrient spraying, and lighting are dynamically controlled. Mechanically. Within the actuation component, it is based on the Lorentz force, operating with a precision of 10 µm. Microactuators and optimized magnetic structural elements support root movements. It increases the mechanical flexibility of the system. The software-assisted optimization component is AI-based. Thanks to control algorithms and sensor integration systems, all system components can be integrated into 20 systems. It ensures adaptive management. The integration of all these components in optimized ratios, Limitations of current vertical farming systems in root development, non-homogeneous nutrient-water ratio. distribution, theoretically, eliminates its limited photosynthetic capacity with high water and nutrient waste. with a production capacity of 450 kg / m² / year, 98% water use efficiency and 35 kWh / m² / year energy consumption. environmental sustainability and economic efficiency 25 offering superior performance metrics such as consumption the implementation of a new generation agricultural platform that will revolutionize the field. It provides. The best way to utilize the advantages of the existing invention, together with its structure and additional elements. For it to be understood, it must be considered together with the figures explained below. 30 BRIEF DESCRIPTION OF THE FIGURES Figure 1: (AEROGENESIS: The vertical farming era of the future) high productivity and adaptability Schematic of a growth-enhancing quantum aeromagnetic farming system (QSAFS). It is the appearance. 35 REFERENCE NUMBERS 1. Diamagnetic lattice component 11. Magnetic lattice arrays 2. Aeroponic unit component 21. Food aerosol generators 5 22. Magnetic grippers 3. Phototropism unit component 31. InP / ZnS quantum dots 32. Plant photoreceptors 4. Electronic control component 10 41. Hall sensor networks 42. Data processing unit 43. Feedback loops 5. Mechanical actuation component 51. Microactuators 15 6. Optimization component 61. Control algorithms 62. Sensor integration systems DETAILED DESCRIPTION OF THE INVENTION 20 This detailed explanation focuses solely on the innovation in the invention to provide a better understanding of the subject. This is explained with examples that will not create any limiting effects. Accordingly, in the following explanation: and in various forms, the vertical agriculture era of the future: high productivity and adaptive growth. The quantum structured aeromagnetic farming system (QSAFS) is described. 25 Figure 1 shows the quantum structure that enables high efficiency and adaptive growth, which is the subject of the invention. This is a schematic view of an aeromagnetic farming system (QSAFS). Accordingly, the system;  Made from bismut-reinforced graphene aerogel, adjustable between 0.1–1.5 Tesla 30 By creating magnetic fields, plant roots can be suspended in three dimensions and optimally A dynamic diamagnetic cage component that provides nutrient-water uptake (1), 6  The plant included within the scope of the mentioned dynamic diamagnetic lattice component (1). optimized to suspend roots and provide magnetic stabilization. magnetic lattice arrays (11),  Food ionized by tungsten electrodes operating at a frequency of 1–10 kHz an electromagnetic pulsed 5 that enables homogeneous distribution of aerosols aeroponic unit component (2),  Within the scope of the mentioned electromagnetic pulse aeroponic unit component (2) found, providing highly efficient ionization, nutrient aerosols are delivered to the plant. electromagnetic nutrient aerosol generators that optimize absorption (21),  The electromagnetic pulse aeroponic unit component mentioned (2) is included in 10 The area, 99.5% of ionized nutrient particles in a controlled area with a radius of 5 cm. Halbach array magnetic holders (22) that enable holding  By spectrally converting UV light near 380 nm to the 450–660 nm range. a quantum dot-assisted phototropism unit that increases photosynthetic efficiency component (3), 15  The mentioned quantum dot-assisted phototropism unit component is included within (3). field, cadmium-free InP / ZnS with high-efficiency light conversion capacity quantum dots (31),  The mentioned quantum dot-assisted phototropism unit component is included within (3). and modified with CRISPR to enable plants to absorb light at optimum wavelengths 20 supporting plant photoreceptors (32),  The magnetic field dynamically controls the nutrient spraying and lighting, integrated hall sensor networks (41), real-time data processing and feedback an electronic control component (4) which includes systems,  Magnetic field 25 included in the electronic control component (4) mentioned. hall, which sensitively detects changes and contributes to system optimization. sensor networks (41),  The data in the system, which is included within the scope of the mentioned electronic control component (4). Edge AI provides real-time data processing by analyzing and enabling instant optimization. unit (42), 30  Magnetic field and included within the scope of the mentioned electronic control component (4) Dynamic feedback enabling adaptive management of nutrient spraying processes. cycles (43),  The system with Lorentz force-based microactuators (51) operating with 10 µm sensitivity a mechanical actuation component that increases mechanical flexibility (5), 35 7  Root movements included within the scope of the mechanical actuation component mentioned (5). Lorentz force based, which enhances the system's adaptability by providing support. microactuators (51),  AI-based control algorithms (61) and sensor integration systems (62) a software-assisted system that provides adaptive management of all system components 5 optimization component (6),  Magnetic, which is included within the scope of the aforementioned software-assisted optimization component (6). AI-based control algorithms that optimize area and food management (61),  Included within the scope of the aforementioned software-assisted optimization component (6), Real-time analysis by integrating data from sensors in the system. 10 Sensor integration systems that enable (62) It includes. In contrast to the shortcomings mentioned in the previous technique, the QSAFS system overcomes these current technological limitations. It goes beyond that by offering an integrated and dynamic solution. QSAFS, bismut-doped graphene 15 Dynamic diamagnetic cage with a hexagonal structure, made of aerogel material. It uses arrays of magnetic flux that can be adjusted between 0.1 and 1.5 Tesla. With their densities, plants are monitored in real time thanks to AI-powered algorithms. It can be optimized according to growth stages and masses. This flexible structure allows the roots to form three By ensuring dimensional positioning, it guarantees optimal nutrient and water uptake, while allowing the roots to grow 20 It also prevents them from interfering with each other. In addition, this system offers modular scalability, making it more... It allows for high productivity to be achieved with dense plant arrangements. The electromagnetic pulse aeroponic unit operates using electromagnetic waves in the frequency range of 1 to 10 kHz. It performs ionization of food aerosols through coils. The ionized food aerosols, under the influence of Lorentz force, form a specific 25 cm radius around plant roots. It is fixed in the area, thus minimizing food waste that occurs in traditional systems. It is reduced. With 99.5% aerosol retention, complete and controlled nutrient delivery to plants. water consumption is optimized and nutrients are used efficiently. It is supported. Quantum dot controlled phototropism technology, on the other hand, uses cadmium-free InP / ZnS. This is implemented by integrating quantum dots (31) into plant tissues. This quantum 30 These points allow near UV light, around 380 nm, to penetrate the plant's genetic makeup and photoreceptors. It converts wavelengths between 450 and 660 nm according to its properties. CRISPR Modified photoreceptors optimize this spectral transformation in plants. It increases photosynthetic efficiency by up to 40% and significantly reduces energy consumption. Thus, the QSAFS system dynamically provides the light spectrum that the plant needs, 35 The QSAFS system eliminates the efficiency losses seen in fixed LED systems. the static, low-efficiency and inflexible state of existing vertical farming and aeroponic systems 8 It is designed to eliminate structural deficiencies. Dynamic diamagnetic lattice. arrays, real-time AI-powered magnetic adjustments, electromagnetic pulsed aeroponics Thanks to nutrient management and quantum dot-assisted phototropism technology, plant growth has improved. optimal root positioning, high nutrient and water efficiency, energy saving and improved performance. Photosynthetic performance is ensured. This integrated solution is a key element for future agricultural technologies. by offering a revolutionary platform that improves both production capacity and environmental sustainability. This presents significant advantages in this regard. The proposed invention aims to eliminate the fundamental shortcomings noted in the previous technique using Quantum technology. Quantum-Structured Aeromagnetic Farming System (Quantum-Structured Aeromagnetic Farming System-10) It offers a revolutionary agricultural platform centered around QSAFS technology. The system, Within the scope of dynamic diamagnetic lattice arrays, hexagonal structures produced from bismut-doped graphene aerogel. AI-powered system with programmable mesh arrays in the structure, adjustable between 0.1–1.5 Tesla. By controlling the magnetic field, it ensures three-dimensional suspension of plant roots and optimal nutrient and water supply. This makes it possible for the acquisition to take place. Electromagnetic pulse aeroponic unit 15 within this scope, electromagnetic coils and tungsten electrodes operating at frequencies of 1–10 kHz Food aerosols ionized by NdFeB magnets are subjected to a 0.5 T Halbach electromagnetization process. Due to the effect of the sequence, 99.5% of the nutrients are retained in a controlled area with a radius of 5 cm, thus... Homogeneity in distribution is ensured, minimizing waste. Quantum dot supported. Within the scope of the phototropism unit, 20 via cadmium-free InP / ZnS quantum dots (31) UV light near 380 nm should be adjusted to the 450–660 nm range to suit the genetic needs of plants. transformation, increased photosynthetic efficiency thanks to CRISPR-modified photoreceptors It provides an increase of up to 40%. In addition, the system's electronic components include an integrated Hall sensor. networks (41), edge AI based real-time data processing units and dynamic feedback while supported by cycles (43); mechanical components, Lorentz 25 operating with 10 µm precision force-based microactuators (51) and optimized structural elements, software components However, thanks to AI-supported control algorithms (61) and sensor integration, the system is constantly It ensures optimization. The optimized integration of all these components provides the existing Static configurations of vertical farming systems, uneven nutrient and water distribution, high water content. and by completely eliminating its limited photosynthetic capacity and wasting nutrients, theoretically 450 30 production capacity of kg / m² / year, 98% water use efficiency and energy consumption of 35 kWh / m² / year, etc. offering superior performance metrics, in terms of environmental sustainability and economic efficiency. It enables the implementation of a revolutionary, next-generation agricultural platform. The subject of the invention is quantum-structured aeromagnetic agriculture, a future vertical agricultural revolution. 35 The system (QSAFS) uses advanced magnetic technology to improve plant growth and productivity. The suspension synergistically integrates precise nutrient delivery and adaptive phototropism technologies. 9 It is an innovative agricultural platform. In the system, the dynamic diamagnetic lattice component (1), bismut magnetic grid arrays made of doped graphene aerogel (11) with 0.1–1.5 Tesla By creating adjustable magnetic fields, plant roots can be suspended in three dimensions and optimized. It provides nutrient-water intake; Aeroponic unit component (2), nutrient operating at 1–10 kHz frequency. Thanks to aerosol generators (21), nutrients ionized by tungsten electrodes 5 It produces aerosols and in a controlled area with a radius of 5 cm with Halbach array magnetic holders (22). It ensures homogeneous distribution by maintaining a 99.5% retention rate; Phototropism unit component (3), cadmium-free InP / ZnS quantum dots (31) through near 380 nm UV light By subjecting the plant to spectral transformation in the 450–660 nm range, CRISPR-modified plant. By integrating with photoreceptors (32), it increases photosynthetic efficiency by up to 40%; Electronic 10 The control component (4) is sensitive to environmental and system-internal changes with integrated Hall sensor networks (41). In this way, it monitors dynamically with Edge AI based data processing unit (42) which provides instant optimization. magnetic field, nutrient spraying and lighting processes thanks to feedback loops (43). It adaptively manages; Mechanical actuation component (5), operating with 10 µm accuracy. By increasing the mechanical flexibility of the system with microactuators (51), the natural 15 of the plant roots It adapts to their movements; The optimization component (6) is AI-based control algorithms (61) and Thanks to sensor integration systems (62), the integration of all components and the system By implementing dynamic adaptation, it theoretically achieves a production capacity of 450 kg / m² / year with 98% water. It offers superior performance metrics such as usage efficiency and energy consumption of 35 kWh / m² / year. All The optimized synergistic integration of these components enables 20% of existing vertical farming systems. a new generation of sustainable, economical and highly efficient agriculture by eliminating its limitations It ensures the platform's implementation.

Claims

REQUESTS 1. The future of vertical agriculture, providing high productivity and adaptable growth. It is a quantum-structured aeromagnetic farming system, and its feature is;  Made from bismut-reinforced graphene aerogel, adjustable between 0.1–1.5 Tesla 5 By creating magnetic fields, plant roots can be suspended in three dimensions and optimally A dynamic diamagnetic cage component that provides nutrient-water uptake (1),  The plant included within the scope of the mentioned dynamic diamagnetic lattice component (1). optimized to suspend roots and provide magnetic stabilization. magnetic lattice arrays (11), 10  Food ionized by tungsten electrodes operating at a frequency of 1–10 kHz an electromagnetic pulse that enables homogeneous distribution of aerosols aeroponic unit component (2),  Within the scope of the mentioned electromagnetic pulse aeroponic unit component (2) It provides highly efficient ionization, allowing nutrient aerosols to be processed by plants in 15 seconds. electromagnetic nutrient aerosol generators that optimize absorption (21),  Included within the scope of the mentioned electromagnetic pulse aeroponic unit component (2) The area, 99.5% of ionized nutrient particles in a controlled area with a radius of 5 cm. Halbach array magnetic holders (22) that enable holding  By spectrally converting UV light near 380 nm to the 450–660 nm range, 20 a quantum dot-assisted phototropism unit component that increases photosynthetic efficiency (3),  The mentioned quantum dot-assisted phototropism unit component is included within (3). field, cadmium-free InP / ZnS with high-efficiency light conversion capacity quantum dots (31), 25  The mentioned quantum dot-assisted phototropism unit component is included within (3). and modified with CRISPR to enable plants to absorb light at optimum wavelengths. supporting plant photoreceptors (32),  The magnetic field dynamically controls the nutrient spraying and lighting, Integrated Hall sensor networks (41), real-time data processing and feedback 30 an electronic control component (4) which includes systems,  Magnetic field included in the aforementioned electronic control component (4). Hall, which sensitively detects changes and contributes to system optimization. sensor networks (41),  The data in the system, which is included within the scope of the mentioned electronic control component (4), 35 Edge AI provides real-time data processing by analyzing and optimizing instantly. unit (42), 11  Magnetic field and included within the scope of the mentioned electronic control component (4) Dynamic feedback enabling adaptive management of nutrient spraying processes. cycles (43),  The system is activated by Lorentz force-based microactuators (51) that operate with 10 µm sensitivity. a mechanical actuation component that increases mechanical flexibility (5), 5  Root movements included within the scope of the mechanical actuation component mentioned (5). Lorentz force-based, which enhances the system's adaptability by providing support. microactuators (51),  All with AI-based control algorithms (61) and sensor integration systems (62) Software-assisted optimization that enables adaptive management of system components 10 component (6),  Magnetic, which is included within the scope of the aforementioned software-assisted optimization component (6). AI-based control algorithms that optimize area and food management (61),  Included within the scope of the aforementioned software-assisted optimization component (6), Real-time analysis by integrating data from sensors in the system. 15 Sensor integration systems that enable (62) It includes.