Diamond capsule: the memory of the future

Abstract

The concept of storing DNA in synthetic diamonds offers a lot of potential in the luxury sector and in biotechnology. Embedding intangible value items (such as memories, music or voices) in diamonds results in a unique luxury product which embodies both technical innovation and emotional depth. In the luxury market, personalized and non-destructible heirlooms could be very popular among wealthy customers. At the same time, the technology offers opportunities for the long-term storage of genetic data in biotechnology and personalized healthcare. On account of the detailed scientific explanations and the high complexity of the methods provided for storing genetic and digital data in DNA and integrating that DNA in precious stones, the decision was made to write the original application in German, which is the applicant's native language.

Description

[0001] -09-2024-39413001 -Hau ptpost-0013 23“09-2024-33413001-Häufl tPm t-0013 PCT / DE2024 / 000080

[0002] Preliminary patent application (PTC) for an innovation for embedding and physical manifestation of intangible assets in synthetic and natural diamonds by Ludwig Trepte and Christian Feldhusen

[0003] Diamond capsule: The memory of the future

[0004] The invention combines several innovative approaches to the physical manifestation and long-term storage of intangible and biological values ​​in gemstones. It utilizes advanced technologies from the fields of nanotechnology, gemstone production, materials science, and emotional value creation. The main technologies include:

[0005] 1. Essence Stones – Transformation of Intangible Values ​​into Physical Essences: This technology transforms ephemeral, intangible values ​​such as voices, music, sound waves, or artistic data into physical essence stones. The process begins with the digital capture of the intangible values, their translation into physical forms, and ends with the conversion of the resulting carbon into synthetic diamonds. Here, the physical manifestation of the intangible value is encapsulated within a synthetic diamond using HPHT (High Pressure High Temperature) or CVD (Chemical Vapor Deposition) technologies.

[0006] Through this process, the intangible value is not only symbolically but also physically stored in a diamond, which serves as a carrier of this essence. The synthetic diamond embodies the artistic or emotional value in a lasting physical form.

[0007] 2. DNA Storage – Physical Storage of Biological DNA and Genetic Data: The physical storage of biological DNA and genetic information takes place in natural and synthetic gemstones such as diamonds, sapphires, rubies, emeralds, and spinels. The process involves the digitization and synthetic replication of the DNA, which is then encapsulated in nanocapsules. These capsules consist of materials such as silicon dioxide or biocompatible polymers, which protect the DNA from environmental influences and ensure long-term storage.

[0008] The DNA is embedded and sealed into the gemstone using precise laser technology to ensure safe long-term storage. Diamonds offer the best protection for this type of long-term storage due to their hardness, chemical stability, and optical properties.

[0009] 3. Self-healing technology: Self-healing technology is a key aspect of this invention. It ensures that the gemstone is automatically repaired in the event of mechanical or thermal damage. Embedded nanoparticles or polymers in the coating react to damage and repair it at the molecular level. This prevents the stored values ​​or DNA from being affected and ensures data integrity over long periods. -09-2024-39413001 -Hau ptpost-0014 23-08-2024-33413001-H auP t PQS i -0014 PCT / DE2024 / 000080

[0010] 4. AI Monitoring Systems: The invention integrates AI-based monitoring systems that continuously monitor the integrity of the stored data and the gemstone. Spectroscopic methods such as Raman spectroscopy and FTIR (Fourier-transform infrared) enable non-invasive monitoring of the molecular structure. The AI ​​continuously analyzes the collected data and, through machine learning algorithms, detects potential damage or anomalies at an early stage. In combination with predictive models, the AI ​​can make predictions about potential damage and trigger early warnings.

[0011] Together, these technologies offer a long-term solution for storing and securing emotional, artistic, and biological values ​​in gemstones that remain stable for millennia.

[0012] State of the art

[0013] Traditional methods for storing value in gemstones, such as memorial diamonds, are based on the symbolic transformation of carbon into synthetic diamonds. These methods are limited to the symbolic conversion of intangible values ​​and emotional memories, without allowing for physical manifestation or long-term data storage.

[0014] Essence stones, on the other hand, offer a revolutionary approach by physically embedding intangible values ​​within gemstones. The process of transforming music, voices, or emotional memories into a tangible, physical form transcends symbolic representation. These values ​​are physically stored in synthetic diamonds, creating a genuine, tangible connection between the intangible value and the physical object.

[0015] DNA storage

[0016] The present invention opens up a new dimension in the long-term storage and manifestation of intangible and biological values ​​in gemstones, particularly diamonds. It pursues two fundamentally different approaches that clearly distinguish between the storage of biological / genomic DNA and artistic DNA (also referred to as data DNA).

[0017] 1. Biological / genomic DNA storage in diamonds

[0018] Biological DNA storage represents the most revolutionary aspect of this invention, enabling the safe preservation of an organism's genetic material for thousands to potentially millions of years. Here, the actual biological DNA of an individual, the entire genome, is encased in a diamond and protected long-term by the exceptional properties of the diamond.

[0019] Use case and goal

[0020] • Long-term archiving of genetic material: Storing biological DNA in diamonds has the potential to preserve the genetic information of a person or organism for future generations or scientific purposes. This DNA could be used in the distant future, through advances in genetic engineering, to potentially reconstruct the organism or specific genetic traits.

[0021] • Unrivaled durability: Due to its exceptional hardness, chemical resistance, radiation resistance, and heat insensitivity, diamond offers the best possible protection for biological DNA. Unlike previous methods, such as freezing cells or DNA in liquid nitrogen, which only work for limited periods, encapsulation in diamonds guarantees long-term stability that surpasses all other methods.

[0022] • Protection from external influences: Biological DNA sealed within a diamond remains stable for periods far exceeding the capabilities of conventional storage technologies. The diamond protects the DNA from mechanical damage, chemical degradation, and environmental influences such as radiation, flash, or corrosion, making it a unique medium for genetic preservation.

[0023] Future vision and relevance

[0024] Restoration and reconstruction: This technology offers the fascinating possibility of deciphering biological DNA in the future and potentially using it to reconstruct the genetic information of a person or organism. This form of DNA encapsulation could be used for genome revival or medical reconstruction once the appropriate technologies have been developed.

[0025] Eternal preservation of life: While traditional storage techniques such as cryopreservation or liquid nitrogen have their limitations, the diamond offers the prospect of eternal preservation. This means that a person or living being could "continue to exist" at the molecular level—not just as a memory, but as actual biological code preserved for eternity.

[0026] 2. Artistic DNA (Data DNA): Storing intangible values ​​in diamonds

[0027] In addition to biological DNA storage, this invention also enables the encapsulation of intangible values ​​that can be converted into data DNA. This approach is aimed at storing artistic or personal values ​​such as music, voices, personal memories, or creative works. -09-2024-39413001 -Main Post-0016 23-09-2024-39413001-Main Post-tPos t-0018 PCT / DE2024 / 000080

[0028] Works encoded in DNA form and embedded in a diamond. This form of storage opens up entirely new possibilities for preserving emotional and symbolic values ​​in a physical and lasting way.

[0029] Use case and goal

[0030] Emotional and symbolic value: Artistic DNA (data DNA) can be used to encode personal memories, music, voices, or creative works in a DNA sequence. This DNA is then embedded in a diamond, creating a unique keepsake that holds both artistic and emotional value.

[0031] Reconstruction and re-experiencing: The intangible values ​​encoded in DNA can be read and reconstructed in the future to relive their emotional or artistic significance. For example, the voices of loved ones, pieces of music, or special moments encoded in DNA could be replayed at a later time. Technology and process

[0032] Data DNA as artistic storage: In contrast to biological DNA storage, artistic DNA involves the encoding of digital information in DNA. This can include, for example, music, texts, or images, which are stored as binary information in the DNA sequence.

[0033] Encapsulation in diamonds: The data DNA is also embedded in a diamond, which, due to its physical properties, offers protection against alteration and damage. However, the focus here is more on the symbolic and emotional preservation of artistic or intangible values.

[0034] Distinction between biological / genomic DNA and artistic DNA (data DNA)

[0035] It is crucial to clearly distinguish biological / genomic DNA storage from artistic DNA storage:

[0036] • Biological DNA: Refers to the actual genetic information of a living being that is stored in a diamond for potential future use for medical or genetic purposes.

[0037] Artistic DNA (Data DNA): Stores intangible values ​​such as music, voices, or memories in a DNA sequence to preserve them for symbolic and emotional purposes and to make them accessible again in the future.

[0038] 2. Artistic DNA (Data DNA):

[0039] Alongside biological DNA, the invention also enables the storage of intangible values ​​in the form of data DNA. For example, music, voices, works of art, or personal memories can be encoded in DNA form and embedded in a diamond. This data can be retrieved and reinterpreted in the future, thereby achieving a deeper emotional and symbolic meaning.

[0040] The present invention, however, utilizes advanced molecular techniques to physically embed biological DNA in gemstones, enabling long-term preservation over millennia. This opens up new possibilities in genetics, medicine, and the long-term preservation of security-critical data.

[0041] Innovation and creative breakthrough

[0042] 1. Essence Stones – Transformation of Intangible Values: The creative process of transforming intangible values ​​such as music, voices, or emotional memories into essence stones represents a significant breakthrough. These values ​​are physically embedded in synthetic diamonds and not merely represented symbolically. The artistic value becomes tangible and permanently manifested in a physical object that will last for millennia.

[0043] 2. DNA Storage – Long-Term Preservation of Biological DNA: The technological breakthrough lies in the ability to physically store and protect biological DNA within gemstones such as diamonds. Molecular binding techniques and nanocapsules securely integrate the genetic information into the material and protect it from external influences. This technology makes it possible to preserve biological data over extremely long periods, opening up a completely new dimension in genetics and long-term storage.

[0044] 3. Self-Healing Technology and AI Monitoring: The integration of self-healing technology in combination with AI monitoring systems offers unprecedented protection for the stored values ​​and data. Even in the event of mechanical damage or structural changes, the self-healing technology ensures that the integrity of the gemstone and the stored data is preserved. At the same time, the AI ​​ensures that potential damage is detected and prevented at an early stage.

[0045] Summary

[0046] This invention encompasses two key technological breakthroughs: essence stones that physically manifest intangible values, and the long-term storage of biological DNA in gemstones. Both technologies offer a unique combination of emotional value creation, data security, and technological advancement. -09-2024-39413001 -Hau ptpost-0018 23-09-2024-39413001 -HauP t Po st -0018 PCT / DE2024 / 000080

[0047] Innovation. The integration of self-healing technology and AI-

[0048] Monitoring systems ensure that the stored data and values ​​remain secure and intact even over extremely long periods of time.

[0049] Diamonds, due to their hardness, chemical resistance, and optical properties, offer ideal conditions for this type of storage. Other gemstones such as sapphires, rubies, emeralds, and quartz can also be used, although diamonds remain the safest choice because of their superior physical properties.

[0050] This groundbreaking invention makes it possible to preserve personal, cultural and biological values ​​for millennia and represents a revolutionary solution for the future of long-term storage.

[0051] Revolutionary breakthroughs and innovations of invention

[0052] Why DNA in diamonds heralds a new era

[0053] Traditionally, life has always been associated with an inevitable end. Death signified a clear conclusion and, with it, the complete transience of life. Even with modern techniques, such as the freezing of DNA or cells, there has been no method to preserve genetic material intact for periods of thousands or tens of thousands of years. Existing cooling systems and technologies are designed for only decades or a few centuries, yet biological decay remains a constant problem. DNA encapsulation in diamonds offers a revolutionary solution.

[0054] By encasing DNA in a diamond, a life capsule is created that is not only symbolic but also scientifically and biologically durable. The diamond offers ultimate durability, protecting the genetic information from anything that could damage it: radiation, extreme temperatures, chemical reactions, or normal biological decay. This opens up the theoretical possibility not only of archiving life but also of restoring it in a potentially distant future, once the appropriate technologies have been developed.

[0055] This technology marks the beginning of a new era of preservation, in which life, identity, and history are preserved in an eternal form.

[0056] Unique durability and indestructibility of the diamond

[0057] Diamonds offer unparalleled advantages as a storage medium for DNA and other data because their physical properties make them extremely resistant: -09-2024-39413001 -Hau ptpost-0019 23-03-2024-39413001-HauPt os t-0013 PCT / DE2024 / 000080

[0058] Hardness: Diamonds are considered the hardest material on Earth, with a hardness of 10 on the Mohs scale. This property protects the DNA in a diamond from physical influences such as scratches, impacts, or wear.

[0059] 2. Chemical stability: A diamond consists of pure carbon and is extremely chemically inert, meaning it is resistant to almost all chemical attack. It does not react with acids or bases, making it ideal for the long-term storage of DNA, as the stored information remains safe in extreme environments.

[0060] 3. Heat resistance: With a melting point of 3,547 degrees Celsius, diamond surpasses almost all other natural materials, making it extremely resistant to extreme temperatures. This protects DNA from the damaging effects of heat that would destroy other storage media.

[0061] 4. Radiation resistance: Diamonds are radiation resistant, especially to cosmic and ionizing radiation, making them ideal for use in extreme environments such as space or the deep sea.

[0062] 5. Aging resistance: A diamond does not age. It resists weathering, corrosion, and other environmental influences that could lead to material degradation in other storage media. These properties ensure the long-term safety of DNA for millions of years.

[0063] 6. Tamper-evident: Because a diamond is extremely difficult to manipulate without destroying it, it is an ideal place to store sensitive information such as DNA, personal data, or secret messages. Unauthorized access to the data stored inside is virtually impossible without damaging the diamond and visibly altering it.

[0064] The revolution of DNA encapsulation in diamonds

[0065] For centuries, diamonds have symbolized eternity and purity. Embedding DNA in a diamond not only revolutionizes storage technology but also elevates the diamond to a new level of biological and cultural preservation. Instead of mere digital data storage, which is prone to loss and decay, diamond technology preserves the genetic essence of an organism in a virtually indestructible medium. This method makes it possible to safeguard life itself in its purest form and ensures that the stored DNA remains stable for millennia and can theoretically be reconstructed if technology allows.

[0066] Previous procedures and their limitations

[0067] Current technologies do not offer a comparable possibility for biological storage over extremely long periods. Materials such as quartz can store large amounts of data, but their physical robustness and biological applicability are limited. Storage media such as magnetic tape or flash memory are not yet viable options.

[0068] Storage devices cannot safely preserve biological DNA and are susceptible to hardware failure, environmental factors, and data loss.

[0069] Embedding DNA in diamonds represents a revolutionary breakthrough, as this method offers not only mechanical and chemical stability but also unparalleled protection against external influences such as radiation, heat, and humidity. No other storage medium offers a comparable combination of durability, robustness, and potential for biological applications.

[0070] Diamond compared to other materials

[0071] While diamond is the ideal choice for the long-term storage of DNA and data, other gemstones such as sapphire, ruby, emerald, or granite offer alternative applications in certain scenarios, but with significant limitations:

[0072] 1. Sapphire: o Hardness: Mohs hardness of 9, extremely durable and heat-resistant up to 2,000 °C. Sapphire is a good choice for personalized memories and emotional value. o Disadvantages: Sapphire can be mechanically damaged and is less suitable for halting biological decay. Furthermore, it does not offer optimal radiation resistance like diamonds, making it unsuitable for DNA storage if immortality is the goal.

[0073] 2. Ruby: o Hardness: Similar to sapphire, with a Mohs hardness of 9. Rubies offer excellent color brilliance and chemical stability and are suitable for symbolic and emotional value. o Disadvantages: Like sapphire, ruby ​​offers less protection against extreme environments and is not suitable for DNA storage when it comes to biological immortality.

[0074] 3. Emerald: o Hardness: Mohs hardness of 7.5-8, less robust than sapphire and ruby. Emeralds have high cultural significance and are excellent for symbolic DNA storage. o Disadvantages: Due to their lower hardness and stability, emeralds are more prone to cracking and do not offer optimal protection for DNA or long-term storage.

[0075] 4. Granite: -09-2024-39413001 -Hau ptpost-0021 2 - - - - auP t POS t - PCT / DE2024 / 000080 o Hardness: Mohs hardness of 6-7, much softer and more prone to damage compared to diamonds. Granite can be eroded by chemical weathering, making it unsuitable for long-term DNA storage.

[0076] What sapphire, ruby ​​and other materials can be used for

[0077] Although sapphire, ruby, and emerald are not ideal candidates for the long-term, secure storage of DNA, they offer valuable applications in the field of symbolic, emotional, and artistic storage solutions. These gemstones can be used to preserve artistic data, memories, and intangible values ​​such as music or personal stories that do not require immortality.

[0078] These materials are ideally suited to the luxury market, which emphasizes the emotional significance and aesthetic appeal of the stones. They offer an attractive market for personalized keepsakes, but they are not suitable for biological immortality or the long-term storage of genetic data.

[0079] Self-healing and AI integration in diamonds

[0080] Compared to other gemstones, diamonds offer the potential to integrate self-healing and AI technologies. Through nanocoatings with self-healing properties and AI-supported monitoring systems, diamonds can independently repair microscopic cracks, thus ensuring the long-term security of DNA. These technologies are not available in all other gemstones, making diamonds a unique medium for long-term, secure storage.

[0081] AI systems continuously monitor the condition of the gemstone and the embedded DNA, using predictive models to detect potential damage early and take countermeasures. Such AI-supported protective mechanisms are not as readily available for other materials, once again making diamonds the best choice for storing biological and emotional value.

[0082] Summary

[0083] Embedding DNA in diamonds opens a new era of preservation, allowing life, identity, and history to be preserved in an eternal form for thousands of years. Compared to other materials such as sapphire, ruby, emerald, or granite, diamond offers unparalleled advantages in terms of hardness, chemical stability, temperature resistance, and radiation resistance. These properties make it the ideal medium for the long-term storage of DNA and genetic data, while other materials are better suited for symbolic and emotional storage solutions. -09-2024-39413001 -Main post-0022 23-09-2024-39413001-Main Post-0022 PCT / DE2024 / 000080

[0084] Furthermore, through the integration of self-healing technologies and AI monitoring, the diamond offers a unique ability to safeguard biological and emotional values ​​in the long term, which does not exist in any other form.

[0085] The ability of materials to self-heal depends on their specific chemical structure, crystal lattice arrangement, and physical properties. Compared to diamonds, other gemstones such as sapphire, ruby, emerald, and granite offer limited potential for self-healing, especially in the context of technologies currently being developed for diamonds. Here is a detailed explanation of why:

[0086] Diamond and self-healing technologies

[0087] Diamonds are particularly well-suited for self-healing technologies because:

[0088] 1. Carbon atom bonding: The very strong, rigid lattice structure of the carbon bonds in a diamond allows nanocoatings or self-healing materials to work effectively in microcracks or fractures. Furthermore, the bonds in diamond are extremely stable, meaning that the diamond better supports these self-healing mechanisms at the molecular level without causing structural damage.

[0089] 2. Nanocoatings and laser technologies: Diamonds offer the possibility of combining laser technology and nanomaterials to detect and repair microscopic cracks. Due to the unique structure of a diamond, this function can be integrated deep into the material, allowing for continuous self-healing with minimal damage to the stone.

[0090] 3. Optical Clarity and Integrity: Self-healing processes can be implemented in diamonds with minimal optical interference. Diamonds' high transparency and ability to integrate laser technologies for monitoring and control make them particularly suitable for self-healing approaches.

[0091] Why other gemstones (sapphire, ruby, emerald, granite) are unsuitable for self-healing

[0092] 1. Sapphire and Ruby (Corundum): o Crystal structure: Sapphire and ruby ​​belong to the corundum family, which, while having high hardness (Mohs hardness 9), does not have the same atomic cohesion and repairability as diamond. Their structure makes it more difficult to integrate self-healing nanocoatings in a way that is as effective as with diamond. -09-2024-39413001 -Hau ptpost-0023 23-03-2024-3S 13001~HauP tPos t-0023 PCT / DE2024 / 000080 o Susceptibility to fractures: When sapphire or ruby ​​develops cracks, it is more difficult to restore the structure because the atomic bonding does not offer the same flexibility as carbon bonds in diamond. o Optical disturbances: Self-healing materials or nano-coatings could be visible in these gemstones and disturb the optical clarity, making them unattractive in the luxury segment.

[0093] 2. Emerald: Crystal structure and inclusions: Emeralds typically have many inclusions and are often more brittle than sapphires or rubies. The structure is therefore particularly prone to breakage and difficult to repair.

[0094] Self-healing coatings would likely not work well due to the brittle nature of emeralds and their existing inclusions. Furthermore, their chemical stability is limited: the structure of emeralds is less chemically stable than that of diamonds or corundum, which complicates the integration of nanomaterials.

[0095] 3. Granite: o Complex structure: Granite is a composite rock consisting of several minerals such as quartz, feldspar, and mica. This heterogeneous structure prevents homogeneous self-healing, as cracks affect different mineral layers and cannot be repaired uniformly. o Softness and weathering: Granite is much softer and can chemically weather over time, which limits its self-healing capacity. The interactions between the different minerals would prevent the effective application of nanocoatings or self-healing materials.

[0096] Conclusion and possibilities: Different materials for specific applications

[0097] While diamond is unparalleled for storing genetic information and ensuring long-term security, other materials are also suitable for certain symbolic or aesthetic purposes. Although these materials do not offer the same physical and chemical robustness as diamond, they can be advantageous in specific applications.

[0098] Sapphire and ruby: o Hardness: Both gemstones are less resistant than diamonds, but still durable. They are suitable for symbolic encoding or artistic purposes where the focus is on aesthetics and emotional value. o Application: Ideal for storing artistic data such as music or symbolic keepsakes that do not require the strict biological safety of a diamond. -09-2024-39413001 -Hau ptpost-0024 23-08-2024-38413001-HauP iPo st -0024 PCT / DE2024 / 000080

[0099] Quartz: Advantages: Quartz can store large amounts of data, but is less robust and more chemically susceptible compared to diamonds. Application: Suitable for digital data storage in binary form, but not for the long-term storage of DNA or living information.

[0100] Magnetic tape and flash memory: While these technologies are more cost-effective and useful for digital data, they are not suitable for long-term storage or DNA storage because they are susceptible to environmental influences and mechanical damage.

[0101] Applications of the materials according to purpose

[0102] Luxury and emotional value: Diamonds: Diamonds can be used to store personal and emotional values ​​(e.g., voices, music), especially if these values ​​are to be passed down through generations. The invisible encoding of patterns under UV light enhances the emotional and symbolic value of the diamond. Sapphires and rubies: These gemstones are suitable for luxurious, emotional keepsakes such as heirlooms, where strict long-term stability is not required.

[0103] Long-term genetic storage: o Only diamonds: For the long-term storage of the genome or important biological data, diamond remains the only material that fully fulfills these functions. Other materials are unsuitable due to their lower physical and chemical resistance.

[0104] Artistic and intangible values: Sapphire, ruby, quartz: For storing intangible values ​​such as music, poems or symbolic works that do not involve physical or genetic data, these gemstones are a more cost-effective, aesthetically pleasing choice.

[0105] Future prospects for self-healing in other materials

[0106] While research into self-healing materials has progressed in recent years, the lower atomic binding energy and less ideal crystal structures of other materials such as sapphire, ruby, and emerald currently make them unsuitable for the same self-healing technologies that can be used for diamonds. These materials may offer self-healing approaches in the future, but current technologies focus on highly structured, stable materials like diamond.

[0107] Summary: Why other materials currently do not offer effective self-healing

[0108] While some materials like sapphire or ruby ​​offer high hardness and chemical stability, their crystal structure and bonding properties make them less suitable for self-healing technologies than diamond. Self-healing mechanisms based on nanocoatings and laser technology are particularly effective due to the unique atomic structure of diamond. Therefore, only diamond offers optimal self-healing and long-term preservation for biological DNA and intangible data, while other gemstones may be suitable for certain applications in symbolic and emotional storage, but are unsuitable for extremely long periods and for biological DNA.

[0109] The Memory of the Future

[0110] The vision of storing intangible and biological values ​​in diamonds or other precious stones elevates the significance of the "life capsule" far beyond a purely technological concept. This invention represents a profound philosophical and cultural breakthrough, redefining both the transience of life and the preservation of human heritage.

[0111] Diamonds as a storage medium of the future

[0112] Diamonds, with their unique hardness, stability, and chemical properties, offer the ideal basis for the long-term storage of genetic and intangible data. This revolutionary technology represents a breakthrough in the archiving of biological and cultural values ​​and opens up new possibilities for preservation for future generations.

[0113] Comparison and application possibilities of the materials according to purpose

[0114] Although diamonds offer the best properties for preserving life and genetic essence, other materials can also be relevant for certain applications. Here is an overview of the different materials and their specific uses:

[0115] Diamonds: o Biological DNA storage: Diamonds offer the best protection for the long-term storage of genetic information. Due to their physical stability and resistance to radiation and chemical 23-09-2024-39413001 -Hau ptpost-0026 23-09-2024- 39413001 -H au P t PQS t - 0028 PCT / DE2024 / 000080

[0116] Genetic data is preserved for millions of years. Intangible values: In addition to storing biological information, diamonds can also preserve intangible data such as voices, music, or personal memories in DNA-encoded form. This data is indestructibly embedded in the diamond's structure, thus offering unparalleled long-term preservation.

[0117] • Other materials such as sapphire or quartz: o Data archiving: For the pure storage of data such as texts, images, or documents, sapphire or quartz can be used as alternatives to diamond. While these materials are less robust, they still offer a relatively durable solution for preserving digital information that has no biological relevance. o Cultural works: For storing cultural artifacts or works of art that do not require extremely long durability, materials such as quartz or sapphire can be cost-effective alternatives. However, these materials do not offer the same level of protection for long-term biological preservation as diamonds.

[0118] Long-term applications

[0119] • Long-term genetic storage (diamonds): o In research on human evolution or for future reconstruction attempts, diamonds could be used as storage media for genetic data to restore extinct species or to support medical research.

[0120] • Data archiving in various materials (quartz, sapphire): o For less critical data where the biological component is irrelevant, materials such as quartz or sapphire could be used. These materials offer a more economical and sufficiently robust alternative for digital data or cultural works.

[0121] Summary: Revolutionary breakthroughs and their significance

[0122] The embedding of DNA, both biological and cultural, in diamonds marks the beginning of a new era of long-term storage. Diamonds are particularly significant, however, when it comes to preserving life and genetic information. Other materials can be used for less critical data. Nevertheless, diamonds offer the best combination of durability, protection, and symbolic value. -09-2024-39413001-Main Post-0027 23-09“2024“39413001“Main •iPes t-0027 PCT / DE2024 / 000080

[0123] Emotional and cultural significance of the diamond capsule

[0124] The emotional dimension of this technology is unique. By transforming diamonds into carriers of personal memories, voices, music, and works of art, an indestructible bond is created between the physical object and the intangible values ​​it contains. These diamonds are no longer merely symbols of luxury but become emotional heirlooms that can be passed down from generation to generation. They embody the essence of a person or culture in a way that not only preserves the memory but manifests it in a lasting physical form.

[0125] Examples of emotional significance: A diamond could contain the voice of a loved one, preserved through advanced technology and encoded in DNA. This voice could be played back in the distant future, increasing the emotional value of the diamond beyond its mere physical beauty. The diamond becomes the vehicle for a person's story and identity.

[0126] Cultural Significance: On a cultural level, this technology could contribute to the preservation of artworks and cultural artifacts. Works such as Beethoven's symphonies or Michelangelo's David could be encoded in DNA and preserved in a diamond for future civilizations. This opens up a new dimension of cultural preservation, where the essence of important artworks is preserved in an indestructible medium.

[0127] Embedding intangible values ​​such as music, memories, or sound waves within a diamond allows these values ​​not only to be preserved but also to live on emotionally and culturally. Unlike digital storage media, which are susceptible to decay and manipulation, the diamond remains indestructible and resistant to the challenges of time.

[0128] 2. Revolutionary breakthroughs in long-term storage

[0129] 2.1. Long-term storage and data security

[0130] Diamonds not only offer the ability to store intangible and biological data, but also enable the tamper-proof storage of sensitive information. DNA-encapsulated diamonds provide virtually indestructible protection against hacking and manipulation. This data can be securely preserved for thousands of years without being digitally altered.

[0131] Current applications: Initial technologies for DNA-based data encryption already exist and could be used for highly sensitive data such as state secrets or important government documents. The combination of DNA storage and diamond encapsulation offers unparalleled protection against cybercrime and physical tampering.

[0132] Future potential: Diamonds could be used as a secure repository for critical government or military data. This would be particularly important in extreme environments, such as in space or during military operations.

[0133] 2.2. Long-term archiving of cultural and scientific data

[0134] DNA-encapsulated synthetic and natural diamonds offer the possibility of preserving important cultural and scientific works for millennia. This technology is extremely resistant to environmental changes, radiation, and physical damage.

[0135] Current applications: The first DNA-based systems for the long-term archiving of historical documents or scientific discoveries are already under development and could be used in museums, libraries or archives.

[0136] Future potential: This technology could one day form the backbone of cultural preservation, with diamonds serving as a repository for our collective human history.

[0137] 3. State-political applications

[0138] Preservation of international treaties

[0139] Important treaties or constitutions, such as the Treaty of Versailles or the Declaration of Independence, could be stored in DNA-encoded diamonds and preserved for thousands of years. This would permanently preserve not only the text, but also the original document in digital form and its associated historical context.

[0140] Future potential: In the future, these documents could be used to verify authenticity and integrity. By embedding them in diamonds, these contracts would be preserved intact for future generations and serve as an unalterable historical record.

[0141] Elections and civil rights

[0142] Voter registers, election results, or even individual votes could be encrypted and stored securely in diamonds using this technology. These could remain intact for generations and serve as evidence of past electoral systems for future civilizations.

[0143] Future potential: This technology could be used in future election systems to ensure election integrity. Tamper-proof storage would guarantee that elections are completely transparent and secure, without the possibility of digital manipulation. 23-09-2024-39413001 -Hau ptpost-0029 23-09-2024-39413001 -Hau □st -0029 PCT / DE2024 / 000080

[0144] 4. Biological DNA storage: A link between past and future

[0145] The possibility of storing biological DNA in a diamond opens up entirely new perspectives in genetics and the preservation of human life. Diamonds, with their physical and chemical stability, offer the ideal basis for preserving genetic material for millions of years. This DNA could be decoded in the future and potentially used to reconstruct living beings or to study genetic traits.

[0146] • Restoration and reconstruction: In 10,000 years, it could

[0147] Scientists are using DNA stored in diamonds to reconstruct extinct species or important historical figures. This could preserve Earth's genetic diversity and even lead to the revival of extinct species.

[0148] Preserving genetic identity: The diamond becomes the keeper of a person's or animal's genetic identity. In a time when science may be able to clone or reconstruct entire organisms, the DNA stored in a diamond could be the key to reviving lost species or individuals.

[0149] 5. Medical applications and personalized medicine

[0150] 5.1. DNA-based medical implants

[0151] ® Biocompatible diamond implants could be used to store genetic information and vital records. These implants would be able to continuously monitor genetic profiles and support real-time medical diagnoses.

[0152] Current applications: The use of biocompatible implants for storing genetic data and monitoring health is already possible. These implants could help monitor genetic mutations and enable early preventative measures.

[0153] Future potential: In the future, such implants could enable personalized therapies by storing individual genetic data directly in the patient's body and making it accessible in real time.

[0154] 5.2. Application in medical implants

[0155] In a diamond implant, DNA can be used as a data storage medium to continuously record health data:

[0156] DNA for analysis and storage: DNA-based sensors could collect information from the body and store it by encapsulating it in nanocapsules (within the diamond). Such devices could be used in 23-09-2024-39413001 -Hau ptpost-0030 23-09-2024-3S413001-Hau P i Po s t-0030 PCT / DE2024 / 000080

[0157] Analyze and store genetic mutations or biological markers in real time.

[0158] DNA as identification or data storage: DNA could be used for identification by being encapsulated in the diamond. This could be used to secure access to certain data or functions of the device, similar to biometric data.

[0159] Artificial organs with an integrated diamond data core: These could not only monitor the organ's functions, but also store relevant health data over long periods of time.

[0160] Nanorobots made of biocompatible materials: They could be used to analyze, modify, and store genetic information within the body. This information could be secured in diamonds integrated into these nanorobots.

[0161] ■ 6. Artistic and symbolic transformation: Emotional and cultural

[0162] Meaning

[0163] Luxury jewelry with personalized memories

[0164] ® Synthetic and natural diamonds containing DNA, voices, heartbeats, or other personal values ​​could be used as highly personalized luxury jewelry.

[0165] | serve. These pieces of jewelry would not only be valuable, but would also have deep emotional value.

[0166] • Current applications: Personalized jewelry that incorporates genetic or intangible values ​​is already possible. Such pieces could serve as highly emotional heirlooms or unique gifts and be passed down through generations.

[0167] Sustainable carbon diamonds from artworks

[0168] Innovation: The synthesis of diamonds from the carbon of artworks offers a sustainable solution in the luxury sector. These diamonds preserve the creative essence of the original work and could function as emotional and cultural symbols.

[0169] Current applications: It is already possible to extract carbon from works of art or music and use it to produce synthetic diamonds. These could be offered in the luxury sector as sustainable and meaningful products. -09-2024-394i300i-Main Post-003i 23-09-2024-38 1300 l=Main Post tPos i-0031 PCT / DE2024 / 000080

[0170] Invisible patterns in the diamond structure

[0171] Diamonds can be engraved with invisible patterns using femtosecond laser technology; these patterns are only visible under specific lighting conditions. This enhances the symbolic value of the engraved material.

[0172] Artistic coding: Music or other personal data is transformed by algorithms into geometric patterns that are stored on the surface of the diamond. This makes each diamond unique and personalized.

[0173] 7. The future of humanity: Eternal memory through diamonds

[0174] The diamond capsule opens up entirely new possibilities for preserving human heritage. In an age of rapid technological advancement, the ability to store both genetic and cultural values ​​in an indestructible medium offers a kind of immortality. While the physical body may perish, the essence of life stored within a diamond remains intact for millennia and can be deciphered and utilized in the distant future.

[0175] • Preserving human history: Future generations could gain profound insights into the history and culture of past civilizations through data stored in diamonds. This access to humanity's works and knowledge could form the basis for future scientific and cultural developments. • Long-term storage for interstellar communication: Diamonds could not only serve as a repository of human history on Earth, but also as a message from humanity to extraterrestrial civilizations. Genetic information, cultural artifacts, and scientific data could be sent into the universe in an indestructible form to provide potential civilizations with insights into human life and culture.

[0176] A philosophical revolution: Diamonds as repositories of life

[0177] The idea that a diamond can be not just a physical object, but a repository of life and identity, represents a profound philosophical shift. The diamond becomes a life capsule, preserving not only an individual's life, but also their memories, emotions, and cultural heritage.

[0178] • Overcoming Mortality: Traditionally, death was considered the definitive end of life. Encapsulating DNA in diamonds challenges this concept. The possibility of preserving DNA for millennia and reproducing it in the future opens the perspective of a new kind of immortality. Death no longer needs to be seen as a final conclusion, but rather as a transition into a future where life could theoretically reappear. • Identity and Rebirth: The diamond becomes a bridge between past, present, and future. It preserves the identity and essence of a person or species in an indestructible form that leaves open the possibility of rebirth in the future. -09-2024-39413001 -Hau ptpost-0032 23-09“ 2024-39413001-HauP tPos t-0032 PCT / DE2024 / 000080.This could open up a completely new dimension in the human experience and radically change our understanding of life and mortality.

[0179] Summary: The diamond capsule as a memory of the future

[0180] The embedding of DNA represents not only a technological breakthrough but also a philosophical and cultural revolution. By enabling the storage of biological DNA and intangible values ​​in an indestructible medium, it opens the possibility of preserving life, identity, and culture for millennia. This could fundamentally change the future of humanity and our understanding of life and mortality.

[0181] The diamond capsule is not merely a storage device for data, but a repository for life itself. It preserves the essence of humanity in a form that transcends the boundaries of time, allowing future generations to rediscover the past and perhaps even bring it back to life. In this sense, the diamond becomes the memory of the future—a capsule that carries life, culture, and identity into eternity.

[0182] Why store DNA for millennia?

[0183] The long-term storage of DNA over millennia has both scientific and cultural relevance. Archiving DNA in a stable and indestructible medium such as a synthetic diamond represents a robust method for preserving genetic information that could be of enormous importance to future generations. Here are the key reasons that justify this method from a scientific perspective:

[0184] 1. Preservation of the human genome for future research and technologies

[0185] • Safeguarding genetic diversity: The human genome contains valuable information about individual and evolutionary traits. Storing DNA offers future generations the opportunity to access this information to conduct genetic research, better understand diseases, develop therapies, or even revive extinct species.

[0186] • Advances in cloning and genetic engineering: While genetic reconstruction and cloning technologies will still be in their infancy in 2024, significant progress could be made in 100, 500, or 1,000 years. Today's DNA could therefore provide the starting material for future biotechnological applications and reconstructions.

[0187] • Personalized medicine: By preserving genetic information long-term, future medical research could identify specific genetic markers for diseases and develop personalized therapies based on an individual's genetic profile. -09-2024-39413001 -Hau ptpost-0033 23- 03-2024-33413001 -HauP t Po s t-0033 PCT / DE2024 / 000080

[0188] 2. Historical and cultural preservation

[0189] A genetic record of history: DNA serves not only to transmit genetic information but also as evidence of individual and evolutionary history. By storing DNA, an individual's identity and ancestry can be preserved, enabling future generations to better understand genetic developments and human evolution.

[0190] Cultural heritage: DNA storage could enable future researchers to study and document genetic changes and cultural developments, contributing to the preservation of cultural heritage.

[0191] Emotional and symbolic meaning: A DNA-encoded diamond could also serve as a personal heirloom, preserving not only genetic information but also holding emotional value for future generations.

[0192] 3. Why is diamond the safest material for DNA?

[0193] The diamond offers a unique combination of physical and chemical properties that make it an ideal carrier for the long-term storage of DNA:

[0194] Mechanical protection: As the hardest natural material, the diamond offers exceptional protection against mechanical damage such as impacts, pressure, or abrasion.

[0195] Chemical and thermal resistance: Diamonds are chemically inert and resistant to environmental influences such as extreme temperatures, humidity, and corrosive substances. This stability ensures that the DNA remains intact for millennia.

[0196] Radiation protection: Diamonds offer effective protection against ionizing radiation that could cause DNA damage in other materials.

[0197] Longevity: Diamonds are stable and durable over geological timescales, meaning they can remain intact as DNA carriers for millions of years.

[0198] 4. What information could be stored in a diamond?

[0199] Besides DNA, numerous other data points can be stored in a diamond, which are both medically and culturally relevant:

[0200] Medical information: Genetic data and personalized medical profiles could be encoded in DNA and securely stored in the diamond.

[0201] Secret data: Highly sensitive information such as scientific discoveries or government documents could be encoded in DNA and stored securely.

[0202] Cultural Heritage: Historical documents, artworks, and music could be translated into DNA and preserved in a diamond to safeguard humanity's cultural heritage. -09-2024-39413001 -Hau ptpost-0034 23-09-2024- 39413001 -HauP t QS t -0034 PCT / DE2024 / 000080

[0203] Memories: Future technologies could make it possible to encode human memories in DNA and store them in a diamond, enabling an innovative form of memory storage.

[0204] 5. Which DNA should be stored?

[0205] The choice of DNA to be stored depends on the specific goals. Common options include:

[0206] The entire genome: This would be the most comprehensive approach, containing all of an individual's genetic information and potentially usable for medical, scientific, or cultural purposes in the future.

[0207] Specific genes or markers: It might be useful to store certain genes that indicate diseases, longevity, or other individual characteristics.

[0208] Mitochondrial DNA (mtDNA): This DNA, which is inherited only maternally, plays an important role in the energy supply of cells and in ancestry analysis.

[0209] Immune DNA: Genes that affect the immune system could be important for future medical research or disease control.

[0210] 6. Voice reconstruction and memory restoration

[0211] One particularly innovative application of DNA storage involves voice reconstruction and, potentially, memory recovery. Based on AI technologies and genome data, it might be possible in the future to reconstruct a person's voice and reproduce it synthetically. Current technologies such as deepfake audio offer a first glimpse into the possibility of digitally reproducing voices. In the future, these technologies could be expanded to realistically recreate voices based on biometric data stored in DNA.

[0212] The storage of memories, however, remains theoretical. Future developments in neuroscience and artificial intelligence could offer the potential to access neuronal patterns and epigenetic marks in DNA to reconstruct fragments of memories.

[0213] Conclusion: Why is the combination of nano-capsules and diamonds unbeatable?

[0214] Storing DNA in a synthetic diamond, combined with nanocapsules, offers the most comprehensive protection currently available. Nanocapsules protect the DNA on a biological and chemical level, while the diamond provides ultimate mechanical and radiation-resistant protection. This combination represents the safest and most durable solution currently available for preserving genetic, medical, and cultural assets over extremely long periods.

[0215] In summary, the combination of nano-capsules and diamonds offers:

[0216] Maximum protection against mechanical and environmental damage. -09-2024-39413001 -Hau ptpost-0035 23=09-2024"39413001”HauP tpos =003'5 PCT / DE2024 / 000080

[0217] Long-term stability over millennia.

[0218] Preservation of genetic and cultural information for future scientific breakthroughs and cultural preservation.

[0219] Symbolic meaning through the combination of the technical properties of the diamond with the emotional and cultural relevance of DNA.

[0220] Conclusion:

[0221] Storing DNA in a synthetic diamond combined with nanocapsules represents the only scientifically proven method for preserving an individual's genetic material over extremely long periods—up to hundreds of thousands of years. The diamond offers ultimate protection against mechanical, chemical, and radiation-related influences that other materials could not withstand. This ensures that the DNA remains intact under extreme environmental conditions.

[0222] This method is not only unique in its longevity, but also opens up the theoretical possibility that future technologies could access the stored genetic material to create genetic copies or reconstruct specific traits, such as the voice. While no technology currently exists that allows for the complete restoration of personality or memories, the long-term storage of DNA in an indestructible medium like diamond offers the greatest potential for making this information available in the distant future.

[0223] There is no other known technology or material combination that offers this form of long-term protection and security for genetic material. The use of synthetic diamonds and nanocapsules therefore represents the best and safest way to preserve genetic information for future generations and maintain genetic heritage over extremely long periods.

[0224] EXAMPLES Technical Processes

[0225] Exemplary process for converting intangible works of art into synthetic diamonds for processing and preserving artistic and symbolic values

[0226] Step 1: Selection and digital conversion of intangible assets and works of art

[0227] 1.1 Recording and categorizing intangible assets:

[0228] This step encompasses a wide range of artistic and intangible assets that can be digitized using innovative technologies. There are no restrictions on the source material used for carbon recovery. The following list includes various intangible assets of all kinds that can be used in the process, such as: -09-2024-39413001 -Hau ptpost-0036 23-09” 2024-39413001”HauP-tPss t“0036 PCT / DE2024 / 000080

[0229] Musical pieces: Music, as one of the most prominent forms of art, can be incorporated into this process. Using high-resolution audio recording techniques (e.g., 192 kHz / 32-bit), musical pieces are digitized and converted into three-dimensional sound waves by algorithms. This captures the entire spectrum of the music, from the lowest frequencies (bass) to the highest notes.

[0230] Voice recordings: Voices, poems, plays, or historical speeches can be recorded and digitized using microphone technology. These recordings are transformed into a 3D representation of sound waves that accurately reflect both frequency and amplitude. For example, the voice of a loved one can be transformed into a diamond.

[0231] Environmental sounds: Natural ambient sounds such as birdsong, the sound of the sea, forest sounds, or the patter of rain can also be captured in high-precision audio formats and converted into visual models. Artificially generated sounds such as the clinking of glass, the hum of machines, or the sound of a car can also be part of the process.

[0232] Motion data and sporting events: Movements performed by an athlete or an object (e.g., a tennis stroke, a soccer goal, or the bounce of a basketball) can be captured using motion tracking technologies such as motion capture (MOCAP) and sensor technology. These movements can be converted into digital waves as data streams to integrate physical movement into the artistic process. Even the specific trajectory of a tennis ball during a match can be recorded and digitally processed using sensor technology.

[0233] Screenplays and manuscripts: A screenplay or literary work can be digitized using optical character recognition (OCR) and converted into three-dimensional models. Text can be processed as a structural or geometric element, with characters and their positioning serving as the data model for the diamond process.

[0234] Film and video material: Moving images, whether in the form of films, animations, or video installations, can also be converted into a sequence of data points. Key frames or special visual effects are transformed into geometric patterns that are integrated into the model.

[0235] Architectural designs: Building plans, architectural drawings, or 3D renderings of buildings and structures can be transformed into structural geometries. The lines and textures of the plans are designed in such a way that they can be transferred into the carbon process as a physical manifestation.

[0236] Scientific data and formulas: Mathematics and natural sciences can also be used in an aesthetic way. Scientific discoveries, formulas, or equations (e.g., E=mc²) 2) can be transformed into 3D models -09-2024-39413001 -Hau ptpost-0037 23-09- 2024-39413001 -H aut POS -0037 PCT / DE2024 / 000080, where the equation acts as a data structure that forms the carbon.

[0237] Handwritten texts and calligraphy: Personal handwritten notes, calligraphy, or historical documents are digitally captured so that the strokes and lines of the handwriting can be modeled three-dimensionally. These documents can then be used as physical structures in the diamond synthesis process.

[0238] Painterly artworks and drawings: Digitized paintings or drawings can be used as a basis for creating a physical model. This includes both traditional and modern art forms, where brushstrokes, lines, or color gradients are transformed into three-dimensional representations.

[0239] Sculptures and installations: Physical artworks, such as sculptures or installations, can be captured using high-precision 3D scanners. The geometry of the artwork is transferred into a digital model that contains all the details of the original work. These models then serve as the basis for conversion into carbon structures.

[0240] Dance and movement data: A dancer's movements can be recorded using motion capture technologies (MOCAP) and integrated into the process as geometric patterns. This includes the spatial movements of the body in three-dimensional space.

[0241] 1.2 Processing and modeling:

[0242] • 3D modeling and data visualization: The captured data, whether sound waves, visual artwork, or motion data, is transformed into three-dimensional models. CAD software such as Autodesk Fusion 360 or Blender is used to create these models. This software makes it possible to integrate even the finest details of the original data into the three-dimensional geometry, which is later converted into carbon.

[0243] Transformation of data into physical patterns: Specialized algorithms analyze and interpret the digitized data to convert it into geometric shapes and structures. Sound waves are transformed into spatial curves, text into line patterns, and motion data into dynamic geometries. This is an essential step in transferring intangible values ​​into a physical form suitable for subsequent processing in the carbon process. -09-2024-39413001 -Hau ptpost-0038 23-09-2024-39413001-HauPiPQs t-0038 PCT / DE2024 / 000080

[0244] Step 2: Creating a physical model from sustainable wood

[0245] 2.1 Sustainable wood procurement:

[0246] Material selection: For the physical representation of the digital models, wood from certified sustainable forestry is used. This can include wood species such as oak, walnut, or mahogany, which possess both aesthetic and ecological properties. Sustainability is a central aspect of this process in order to minimize the environmental impact of production.

[0247] Strategies for long-term timber management: To ensure a continuous supply of high-quality timber, the management of company-owned forests could be considered. These forests would serve as exclusive raw material sources for the manufacturing process, with a focus on environmentally responsible methods.

[0248] 2.2 CNC milling technology:

[0249] Creation of the physical model: The three-dimensional digital model is transferred into the wood using CNC (Computer Numerical Control) milling technology. High-precision CNC milling machines work with extreme accuracy, cutting the physical structure of the artwork into the wood. In this process, every aspect of the digital template is physically manifested.

[0250] Exquisite detail and precision: The milling machine can capture and reproduce even the most intricate details of the original artwork. This means that the physical properties of the model, such as textures, surface structures, and the smallest geometric nuances, are preserved. In this way, it is ensured that the physical wooden object reflects the essence of the original artwork in every respect.

[0251] Step 3: Pyrolytic conversion of the wood to pure carbon

[0252] 3.1 Pyrolysis process:

[0253] Thermal decomposition under exclusion of oxygen: The wooden object made from the artwork is subjected to a pyrolytic process in a vacuum chamber, where it is heated in the absence of oxygen. Temperatures range from 600 to 900°C, completely decomposing organic compounds and leaving only pure carbon. This ensures that the physical structure of the model is preserved during the carbon conversion.

[0254] Extraction of pure carbon: After the pyrolysis process, the carbon remains in its purest form. This carbon, now carrying the essence of the artwork, forms the basis for its conversion into hexagonal graphite, which serves as a precursor for diamond synthesis. -09-2024-39413001 -Hau ptpost-0039 23-09-2024-39413001-HauP tPos -t— 0039 PCT / DE2024 / 000080

[0255] Step 4: Conversion of carbon into hexagonal graphite

[0256] 4.1 Graphite synthesis:

[0257] High-temperature treatment of carbon: The extracted carbon is treated in a special high-temperature chamber at temperatures exceeding 2000°C. This process transforms the carbon into a hexagonal crystalline structure, known for its stability and ordered arrangement.

[0258] Crystal formation: The carbon crystallizes in layers that exhibit high structural stability. These hexagonal graphite layers form the ideal starting point for subsequent conversion to diamond using the HPHT process.

[0259] Step 5: High-pressure high-temperature (HPHT) synthesis of graphite to diamond

[0260] 5.1 Simulation of geological conditions:

[0261] HPHT process: The hexagonal graphite is transferred to an HPHT chamber that simulates conditions found in the Earth's mantle. The chamber generates pressures exceeding 5 gigapascals (GPa) and temperatures exceeding 1400°C, resulting in the transformation of the graphite into a synthetic diamond.

[0262] Crystal structure transformation: Under these extreme conditions, the carbon atoms change and form a cubic diamond lattice, which exhibits the highest density and stability. The original carbon, which carries the essence of the artwork, is transformed into a diamond that physically and symbolically represents the original art.

[0263] Step 6: Refining the synthetic diamond

[0264] 6.1 Grinding and polishing:

[0265] Handcrafted finishing: The rough diamond produced using the HPHT process is cut and polished using traditional techniques. Experienced diamond cutters shape the diamond into the desired cut, optimizing its brilliance to meet the highest aesthetic standards.

[0266] Individual customization: Depending on customer requirements, the diamond can be cut into a variety of shapes, such as brilliant, pear, or emerald. These cuts not only emphasize the beauty of the synthetic diamond but also its unique origin as a physical representation of a work of art. -09-2024-39413001 -Hau ptpost-0040 23-09-202 -38413001“HauPiPQs^-0040 PCT / DE2024 / 000080

[0267] Exemplary process for DNA encapsulation and integration into gemstones with comprehensive protection, refinement and AI monitoring.

[0268] This method describes a broad application for storing and securing information (e.g., genetic data, cultural artifacts, or encrypted messages) by converting it into DNA, encapsulating it in stable nanocapsules, and integrating it into gemstones such as sapphire, emerald, ruby, quartz, and other crystals.

[0269] Step 1: Data acquisition, digitization, and conversion into DNA sequences

[0270] 1 ■ Data Capture and Digitization o Data Source: The first step is to capture the information to be stored. This can include genetic data, text, images, or other digital information. For example, if the data consists of handwritten notes or genetic sequence data, OCR (Optical Character Recognition) technology is used to convert handwritten or printed text into machine-readable formats. o Capture Precision: The OCR technology must have an accuracy of at least 99.9999% to ensure that no information is lost during conversion. This is particularly critical for genetic data, as even a minimal deviation can lead to functional changes in the stored data.Storage in ASCII format: The digital data is stored in ASCII-based text files, as ASCII is an internationally recognized standard for representing text in computers. The advantage is that this data can be easily converted into binary data, which is the next step.

[0271] 2. Encoding the data into DNA bases or DNA encoding algorithm: The ASCII-encoded data is converted into DNA bases using a binary encoding scheme. This is done according to the following scheme:

[0272] ■ 00 = Aden in (A)

[0273] ■ 01 = Guanine (G)

[0274] ■ 10 = Cytosine (C)

[0275] ■ 11 = Thymine (T) -09-2024-39413001 -Hau ptpost-0041 23-09- 2024- 39413001 - H au P * P ost -00 1 PCT / DE2024 / 000080 o Length of DNA sequences: The length of the resulting DNA sequences depends on the amount of original data. For example, storing 1 megabyte of data (approximately 8,000,000 bits) requires about 1.6 million base pairs. This represents a considerable storage capacity, but it can be easily synthesized using synthetic DNA in modern laboratories.

[0276] 3. Error Correction using Reed-Solomon Codes: To ensure long-term data integrity, a Reed-Solomon error correction algorithm is applied. This algorithm adds redundant data, enabling the restoration of the original information even in the event of partial loss or damage to the DNA sequences. In practice, this means that up to 10% of the data could be lost due to physical damage to the DNA without affecting the data content. Adaptation to the DNA sequence type: The Reed-Solomon codes can be adapted depending on the length of the DNA sequences and the planned storage duration. For storage durations of several thousand years, additional error correction data must be added to prevent potential degradation.

[0277] Step 2: Chemical synthesis of DNA

[0278] 4. Oligonucleotide Synthesis o Oligonucleotide Synthesis Method: The DNA sequences created in step 1 are produced by chemical oligonucleotide synthesis. This is a precise technique in which DNA strands are artificially constructed in a laboratory. During synthesis, the individual bases (A, G, C, T) are joined together sequentially. o Synthetic Efficiency: The efficiency of modern synthesis methods is over 99.5% per base pair. With an average sequence length of 1.6 million base pairs, this means that the error rate is minimal. o Specialized Laboratories: Companies such as Twist Bioscience or Integrated DNA Technologies (IDT) offer the possibility of producing synthetic DNA with a length of several million bases using highly precise synthesis methods.

[0279] 5. Purification and quality control o Reverse-phase chromatography (RP-HPLC): After synthesis, the DNA strands are analyzed using reverse-phase chromatography.

[0280] High-performance liquid chromatography (RP-HPLC) purified to remove defective strands or impurities. The purity of the synthesized DNA is increased to over 99% to ensure that no unwanted byproducts interfere with the DNA. Gel electrophoresis for purity control: The DNA is additionally checked for size and purity by gel electrophoresis. This ensures that only complete and correct DNA sequences are used. Adjustments for DNA length: Depending on the length of the DNA and the amount of data to be stored, additional steps may be required to improve synthesis efficiency and quality control.

[0281] Step 3: Encapsulation of the DNA in nanocapsules

[0282] 6* Material selection for the nanocapsules o Multilayer nanocapsules: The encapsulated DNA is protected by a multilayer structure made of different materials. Materials used include:

[0283] ■ Silicon dioxide (SiO2): This material is ideal for protecting DNA from environmental influences due to its thermal stability and chemical inertness.

[0284] ■ Sapphire or quartz particles: These materials offer additional stability and mechanical protection, especially for storage in gemstones such as sapphire or quartz.

[0285] ■ Ceramic nanoparticles: These particles offer radiation protection and prevent DNA degradation caused by UV radiation or ionizing radiation.

[0286] 7 ■ DNA Encapsulation o Emulsion Polymerization: The DNA is encapsulated in nanocapsules using the emulsion process. This technique involves embedding the DNA in an emulsion of hydrophobic and hydrophilic phases. This ensures that the DNA is surrounded by a protective layer that shields it from water and other molecules. o Stabilization: The capsules are stabilized by biocompatible polymers such as polyethylene glycol (PEG), which provide an additional protective layer and prevent the DNA from being damaged by chemical agents or mechanical pressure. o Optimization Depending on the gemstone: Depending on the specific gemstone (sapphire, quartz, ruby, emerald), adjustments can be made to the material composition of the capsules. For example, harder crystals such as diamond or sapphire are less susceptible to radiation damage than softer gemstones such as emerald or quartz.In such cases, the proportion of radiation shielding materials in the nanocapsule can be increased. -09-2024-39413001 -Hau ptpost-0043 23-09-2024-39413001-HauP'tPos t-0043 PCT / DE2024 / 000080.

[0287] 8. Layer structure of the nanocapsules o Inner layer: This consists of a biocompatible polymer (e.g.

[0288] PEG), which protects the DNA from mechanical stress. This layer absorbs shocks and prevents direct contact between the DNA and the outside world. Middle layer: This layer consists of a hard material such as sapphire or quartz and provides thermal protection up to over 2000°C as well as mechanical protection at pressures up to 10 gigapascals (GPa). Outer layer: This layer consists of graphene and ceramic nanoparticles that are resistant to radiation and chemical attack. This layer has self-healing properties to seal microscopic cracks and ensure long-term protection.

[0289] Step 4: Preparing the gemstone

[0290] 9. Selection of the gemstone or material: Depending on the specific requirements, gemstones such as sapphire, ruby, emerald, diamond, or quartz are used. Each of these gemstones offers different physical properties such as hardness, chemical stability, and optical clarity.

[0291] ■ Hardness: Gemstones such as sapphire and diamond offer the best protection against mechanical damage with hardness levels of 9 and 10 respectively on the Mohs scale.

[0292] ■ Optical clarity: Emerald and ruby ​​require precise laser processing to avoid damaging their crystal structures.

[0293] Purity testing: The selected gemstone undergoes intensive testing to ensure that it is free of cracks, inclusions, or structural weaknesses. This is done through X-ray fluorescence analysis, optical inspection, and electron microscopy.

[0294] 10. Generation of microscopic cavities

[0295] • Femtosecond laser: A femtosecond laser is used to precisely create cavities, emitting ultrashort pulses (between 10 A -15 seconds). This laser allows for precise material processing without thermal damage, which is particularly important for delicate gemstones such as emerald or quartz. -09-2024-39413001 -Hau ptpost-0044 23-09-2024-38413001-HauPt Pos t-0044 PCT / DE2024 / 000080

[0296] Wavelength adjustment: The required laser wavelength varies depending on the gemstone used: o For harder gemstones such as diamond and sapphire, a wavelength of 1030 nm is used. o For softer gemstones such as quartz, a shorter wavelength of 800 nm may be more efficient.

[0297] Cavity size: The cavities must be microscopically small to avoid compromising the gemstone's structure, yet large enough to accommodate the nanocapsules. Typical cavity sizes range from 100 nanometers to 10 micrometers.

[0298] Step 5: Inserting the DNA nanocapsules into the gemstone

[0299] 11. Placement of the DNA nanocapsules

[0300] • Micromanipulation: The DNA nanocapsules are manipulated using

[0301] Micromanipulators and optical tweezers are inserted into the cavities of the gemstone. This is done under sterile conditions to prevent contamination. These tools allow for precise placement in the range of 1 nanometer to 10 micrometers.

[0302] Adaptation depending on the gemstone: Depending on the hardness of the gemstone used, the micromanipulators and optical tweezers employed can be adapted to maintain the structural integrity of the gemstone.

[0303] 12. Sealing the cavities

[0304] • Femtosecond laser: After the nanocapsules are placed, the cavities are sealed with a layer of synthetic sapphire or quartz using laser sealing. Ultrashort laser pulses are used to create a molecular bond between the natural and synthetic materials.

[0305] • Sealing materials: Synthetic sapphire or quartz is applied in microscopic layers to hermetically seal the cavities and protect the DNA from external influences such as moisture or radiation.

[0306] Step 6: High-pressure high-temperature synthesis (HPHT)

[0307] 13. Introduction to the HPHT Chamber

[0308] • HPHT process: The gemstone is subjected to extreme conditions in a high-pressure, high-temperature (HPHT) chamber. These conditions simulate the natural processes that occur during the formation of gemstones in the Earth's crust. Typical parameters are: o Pressure: Over 5 gigapascals (GPa). o Temperature: Over 1400°C.

[0309] 14. Diamond crystallization

[0310] • Crystal growth: Under the extreme HPHT conditions, the carbon crystallizes into a cubic diamond lattice. The DNA nanocapsules remain stable during this process and are completely encapsulated within the crystal. The process must be monitored to ensure that the DNA is not affected by the high pressure and temperatures.

[0311] Step 7: Engraving an access code and refining the gemstone

[0312] 15. Femtosecond laser engraving

[0313] • Cryptographic access code: An invisible cryptographic access code is engraved onto the surface of the gemstone using a femtosecond laser. This code is only visible under UV light and allows the DNA data to be read later.

[0314] 16. Finishing and protective coatings

[0315] • Plasma and nanocoatings: The gemstone is coated with plasma-

[0316] The treatment and a nano-coating protect against external influences such as chemical reactions, mechanical stress, and radiation. This coating possesses self-healing properties, allowing microscopic cracks to be repaired over time.

[0317] Self-healing coatings: The nano-coatings consist of graphene, a material capable of healing cracks and damage. This ensures that the gemstone retains its integrity for thousands of years.

[0318] Step 8: AI-supported long-term monitoring

[0319] 17. Monitoring by Raman spectroscopy

[0320] ■ • Raman spectroscopy: The molecular structure of DNA is continuously determined by

[0321] "Raman spectroscopy is used for monitoring. This technique allows for monitoring without physical [constitutional]

[0322] Intervention: Changes in the molecular composition of the gemstone or

[0323] ■ to determine the DNA.

[0324] Adjustments for different gemstones: Depending on the gemstone, different spectroscopy parameters can be used to optimize the accuracy of the monitoring. Sapphire and diamond require higher wavelengths than quartz or emerald.

[0325] 18. Early warning system and self-healing

[0326] • AI monitoring system: An artificial intelligence (AI) monitors the molecular data in real time and triggers an early warning system in case of anomalies. In the event of structural damage, self-healing nanoparticles can be activated to repair small cracks in the nanocapsules.

[0327] Step 9: Data extraction and retrieval

[0328] 19. Non-invasive DNA extraction

[0329] • Raman spectroscopy: Raman spectroscopy allows the DNA data stored in the nanocapsules to be read without damaging the gemstone. This non-invasive technique uses lasers to analyze molecular vibrations and provides access to the stored information. -09-2024-39413001 -Hau ptpost-0046 23” 09-2024- 39 13001 - H au P t OS t -0046 PCT / DE2024 / 000080

[0330] Femtosecond laser: Alternatively, a femtosecond laser can be used to cut small channels into the gemstone and extract the DNA nanocapsules.

[0331] 20. Cloud Data Integration

[0332] • Cloud platform: The extracted data is integrated into a cloud platform to make it accessible to authorized users worldwide. Data integrity is ensured through additional error correction algorithms.

[0333] Adaptation to various crystals and gemstones

[0334] Hardness and material adjustments: Harder gemstones like diamond or sapphire require more energy and longer pulses for laser processing. Softer gemstones like quartz or emerald require shorter pulses and more radiation shielding.

[0335] Additional protective measures: For materials such as quartz and emerald, which are more sensitive to radiation and mechanical stress, thicker nanocoatings and additional radiation protection layers are applied.

[0336] Restrictions and procedures that are only possible with diamonds

[0337] 1. Engraving an access code using femtosecond lasers

[0338] 2. High-pressure high-temperature synthesis (HPHT)

[0339] 3. Self-healing nanocoatings

[0340] 4. Material hardness and structural integrity

[0341] 1. Engraving an access code using femtosecond lasers

[0342] • Diamonds: Femtosecond laser engraving works particularly well on diamonds, as diamond is the hardest known material (Mohs hardness 10). This hardness allows for ultra-fine engravings using femtosecond lasers without affecting the diamond's structure. The engraving can be extremely precise, and due to the chemical and structural stability of diamond, the engraving remains intact for extended periods. An access code engraved on a diamond remains stable and legible even after many years.

[0343] Other gemstones (emerald, ruby, quartz): Emerald and ruby ​​have a lower hardness (Mohs hardness 7 to 9). While femtosecond lasers can theoretically be used on these gemstones, the risk of structural damage or loss of the engraving is higher because these gemstones are more brittle. Emerald, in particular, has a strong tendency to crack and contain inclusions, meaning that laser engraving could potentially compromise the integrity of the gemstone. Furthermore, the engraving may be less stable and could disappear over time due to external influences or material wear.

[0344] Conclusion:

[0345] • Engraving an access code with femtosecond lasers is only fully effective and stable in the long term with diamonds. This method is less suitable for emeralds, rubies, and quartz due to their lower hardness and greater susceptibility to damage.

[0346] • Applicable section: Step 7: Engraving an access code and finishing the gemstone

[0347] 2. High-pressure high-temperature synthesis (HPHT)

[0348] Diamonds: High-pressure high-temperature synthesis (HPHT) is specifically used for the production of synthetic diamonds. In this process, carbon is crystallized into a diamond lattice under extremely high pressure (>5 GPa) and high temperatures (>1400°C). This process simulates the conditions under which natural diamonds form deep within the Earth.

[0349] Other gemstones: HPHT cannot be used on gemstones such as emerald, ruby, or quartz. These gemstones have different chemical structures and form under completely different geological conditions. Emerald, for example, is composed of beryllium aluminum silicate, and ruby ​​is composed of corundum (Al₂O₃). These materials would be destroyed or become chemically unstable under the extreme conditions of HPHT synthesis. Emeralds and rubies form through hydrothermal processes and in metamorphic rock environments that do not require the high pressure or high temperatures of the HPHT chamber.

[0350] Conclusion:

[0351] HPHT synthesis is exclusively limited to diamond production.

[0352] It is not applicable to emerald, ruby, quartz or other gemstones, as these are chemically and structurally different and would not survive the conditions of HPHT synthesis.

[0353] Applicable section: Step 6: High-pressure high-temperature synthesis (HPHT)

[0354] 3. Self-healing nanocoatings

[0355] Diamonds: Diamonds can be coated with self-healing nanocoatings, particularly graphene-based layers that can repair damage at the microscopic level. Because diamonds are extremely stable and inert, they tolerate nanocoatings that further enhance the material's hardness and durability. The layers interact well with the diamond's carbon-based structure. -09-2024-39413001 -Mainpost-0048 23-03-2024- 39413001 - Mainpost - 0048 PCT / DE2024 / 000080

[0356] Other gemstones: Self-healing nanocoatings are less effective on other gemstones such as emerald or quartz. Emerald, for example, is prone to cracks and inclusions, and the lower hardness of emerald and quartz (Mohs hardness 7) makes these materials more susceptible to permanent damage that cannot be fully repaired even by nanocoatings. The chemical composition of quartz and emerald also makes them less suitable for carbon-based nanocoatings such as graphene, as these materials respond differently to molecular interactions.

[0357] Conclusion:

[0358] Self-healing nanocoatings like graphene are particularly effective on diamonds. They offer less protection on other gemstones such as emerald, ruby, or quartz and cannot be applied in the same way.

[0359] Applicable section: Step 7: Finishing and protective coatings

[0360] 4. Material hardness and structural integrity

[0361] Diamonds: Thanks to their extreme hardness (Mohs hardness 10), diamonds are particularly resistant to mechanical stress, high temperatures, and chemical attack. These properties make diamonds ideal for long-term DNA storage. They are virtually indestructible and offer optimal conditions for the protective layers and nanocapsules that contain the DNA.

[0362] Other gemstones: Gemstones such as emerald, ruby, and quartz are less hard (Mohs hardness 7 to 9) and therefore more susceptible to damage, especially under mechanical stress or extreme conditions. Emeralds are particularly fragile, as they often contain inclusions and cracks. This makes them less suitable for processes requiring pressure, mechanical stress, or high temperatures. Quartz also has lower resistance to chemical and mechanical influences than diamonds.

[0363] Conclusion:

[0364] Diamonds offer optimal material hardness and structural integrity. Emerald, ruby, and quartz are less resistant, making them less suitable for some of the highly complex processes described (such as HPHT and nanocoatings).

[0365] Applicable section: Step 4: Gemstone preparation and Step 7: Finishing and protective coatings -09-2024-39413001 -Hau ptpost-0049 23-09-2024- 39413001 -Hau P t Po st -0049 PCT / DE2024 / 000080

[0366] Summary: Processes that only work on diamonds

[0367] 1. Engraving an access code with femtosecond lasers: Only possible with diamonds, as they are stable and hard enough to permanently preserve the engraving. o Section: Step 7: Engraving an access code and refining the gemstone

[0368] 2. High-pressure, high-temperature synthesis (HPHT): This only works with diamonds, as the extreme conditions necessary for their synthesis are essential. Other gemstones would be destroyed under these conditions. (See section: Step 6: High-pressure, high-temperature synthesis (HPHT))

[0369] 3. Self-healing nanocoatings: These work particularly well on diamonds due to their chemical stability and interaction with graphene-based layers. Less effective on other gemstones. o Section: Step 7: Refinement and protective coatings

[0370] Material hardness and structural integrity: Diamonds are ideal for the processes described here due to their hardness (Mohs hardness 10). Other gemstones such as emerald or quartz are too brittle and more susceptible to damage. o Section: Step 4: Preparing the gemstone

[0371] Conclusion on the long-term storage of DNA data in various gemstones

[0372] Introduction

[0373] Long-term storage of DNA data is a technologically complex process that presents various challenges regarding the durability, stability, and security of the stored information. The choice of gemstone for DNA storage is crucial, as the physical and chemical properties of the materials influence the lifespan of the stored data.

[0374] While gemstones such as sapphire, emerald, quartz, and other crystals can theoretically be used for storing DNA data, they have significant disadvantages compared to diamonds regarding the long-term security and durability of the data. Diamonds, especially synthetic or natural ones, offer unique physical and chemical properties that make them the ideal storage medium for genetic DNA data for millennia. This conclusion explains the differences between the gemstones and highlights why only diamonds guarantee optimal long-term storage of genetic data.

[0375] 1. Suitability of sapphire, emerald, quartz and other gemstones for storing DNA data

[0376] Gemstones such as sapphire, emerald, quartz, and similar crystals offer a number of advantages in storing DNA data: -09-2024-39413001 -Hau ptpost-0050 23- 09-2024- 39 13001 -Ha UP t Pos t— 0050 PCT / DE2024 / 000080

[0377] Hardness and chemical stability: These gemstones exhibit relatively high hardness (Mohs hardness of 7 to 9) and chemical stability, making them robust against external influences such as scratches, moisture, and moderate heat. This allows for a certain degree of long-term storage of DNA data over decades or possibly centuries.

[0378] Protection from environmental influences: Nanocoatings and encapsulation techniques can protect the DNA in these gemstones for extended periods. Encapsulating the DNA data in nanoparticles or glass materials, followed by a hermetic seal within the gemstones, offers a degree of protection against moisture and radiation.

[0379] Optical purity and aesthetic value: For heirlooms or symbolic DNA repositories passed down through generations, these gemstones offer an attractive way to secure DNA data in a valuable object through their aesthetic beauty and symbolic value.

[0380] Limited shelf life:

[0381] Despite their advantages, these gemstones are limited in terms of long-term durability compared to diamonds. Over millennia, they are more susceptible to microscopic cracks, chemical degradation, and mechanical damage, which can compromise the integrity of DNA data in the long run. These gemstones are also more sensitive to environmental factors such as extreme temperatures, radiation, and chemical reactions, which can lead to the degradation of the encapsulated DNA over time.

[0382] 2. Superior properties of diamond for storing genetic DNA data over millennia

[0383] Diamonds, especially synthetic or natural ones, represent the ideal medium for the long-term storage of genetic DNA data. Here are the main reasons why diamonds are superior to other gemstones:

[0384] Extremely high hardness (Mohs hardness 10): Diamond is the hardest known material. This property makes it particularly resistant to physical influences such as scratches, mechanical stress, and microscopic cracks that could compromise the integrity of the stored DNA data.

[0385] Chemical inertness: Diamonds are extremely chemically stable and hardly react to environmental influences such as moisture, heat, or chemical substances. This protects them against corrosion and degradation, which is particularly important for the long-term storage of genetic data.

[0386] Thermal stability: Diamonds can withstand extremely high temperatures, which is crucial for long-term data storage. Even at extreme temperatures, the diamond's structure remains stable, protecting DNA data from thermal degradation for millennia.

[0387] Radiation resistance: Unlike other gemstones, diamonds offer better protection against radioactive radiation and cosmic rays. -09-2024-39413001 -Hau ptpost-0051 23-09-2024- 39 13001 - Hau t Po st -0051 PCT / DE2024 / 000080

[0388] Influences that could damage the molecular structure of DNA. The DNA data encased in a diamond is safe from such external influences.

[0389] HPHT synthesis for synthetic diamonds: During high-pressure, high-temperature synthesis, DNA nanocapsules can be directly integrated into the carbon structure. This method is unique to diamonds and enables the molecular encapsulation of DNA data within the diamond structure, which is not possible with other gemstones due to their chemical composition and formation processes.

[0390] Long-term molecular stability: Due to the crystalline structure of diamond, the molecular structure of the DNA data remains stable for millennia. Encapsulating the DNA in nanocapsules, which are then integrated into a diamond, offers the highest degree of security and durability.

[0391] 3. Why diamonds are the only choice for storing genetic DNA data for millennia

[0392] In summary, diamonds offer the only physical and chemical

[0393] Properties that enable long-term storage of genetic DNA data over

[0394] can guarantee for millennia:

[0395] Mechanical superiority: No other gemstones possess the same resistance to mechanical stress as diamonds. Emeralds, in particular, tend to develop cracks over time, while quartz has lower hardness and is more susceptible to damage from pressure and mechanical stress.

[0396] Thermal resistance: Gemstones such as sapphire and emerald can be damaged at high temperatures, which could compromise the integral structure of the encapsulated DNA. Diamonds, on the other hand, remain stable even at temperatures far exceeding the limits of other gemstones.

[0397] Chemical inertness: While nanocoatings on other gemstones can help achieve a certain degree of chemical stability, these layers are often unnecessary for diamonds, as the chemical stability of diamonds is excellent even at the molecular level.

[0398] Conclusion: When it comes to preserving genetic DNA data or other extremely important and sensitive information for millennia, diamond is the most reliable choice. While gemstones such as sapphire, emerald, and quartz are certainly suitable for shorter periods and aesthetic applications, they do not offer the same level of security and durability as diamond. The decision to use diamond as a data carrier is based on its exceptional mechanical, thermal, and chemical stability, which ensures unparalleled data security over extremely long periods. -09-2024-39413001 -Hau ptpost-0052 23-09-2024-33413001 -Hau Pt Po st -OOE2 PCT / DE2024 / 000080

[0399] Example: Integrated process for DNA encapsulation and synthesis in synthetic diamonds:

[0400] This method describes a broad application for storing and securing information (e.g., genetic data, cultural artifacts, or encrypted messages) by converting it into DNA and encapsulating it in stable nanocapsules. The described process aims to integrate the DNA data into synthetic diamonds, rather than by subsequent insertion as with natural diamonds. Instead, the DNA is embedded in nanocapsules during the diamond synthesis process.

[0401] Step 1: Capture and digitization of data sources

[0402] The process begins with the capture and conversion of information into DNA. This information can include genetic data, scientific findings, cultural artifacts, or any other data intended for long-term, secure storage.

[0403] 1. Data Acquisition and Digitization: o The data source is captured using specialized recording devices or systems. This can range from acoustic signals and medical data to encrypted information. o The raw data is converted into a digital format that serves as the basis for conversion into DNA. This can be, for example, a binary representation of the data, where the data is converted into sequences of 0s and 1s. o Error Correction and Data Integrity Assurance: Algorithms such as Reed-Solomon or other error correction methods ensure that the information can be recovered even in the event of minimal damage or molecular alterations. This guarantees data integrity over long periods.

[0404] 2. DNA Encoding: The digitized data is converted into a sequence of adenine (A), guanine (G), cytosine (C), and thymine (T) using DNA encoding algorithms. These base pairs form the basis for the synthetic DNA in which the data is physically stored. The encoding is designed redundantly to ensure that any errors during later reconstruction can be compensated for by error correction.

[0405] 3. Application Adaptation: The process can be flexibly adapted depending on the type of data to be stored. This means that the method can be used for storing genetic information, cultural artifacts, scientific results, or even encrypted messages. The invention includes the storage of DNA of any kind, including but not limited to genetic data, encrypted information, scientific or cultural data, embedded in synthetic or natural diamonds.

[0406] Step 2: Synthetic production of DNA and preparation for encapsulation. After the data has been encoded in DNA, the actual DNA is synthetically produced.

[0407] This is done by specialized biotechnology companies that create precise DNA sequences containing the encoded information.

[0408] ■

[0409] 1. Synthetic DNA production:

[0410] "The DNA is analyzed in laboratories using platforms such as Twist Bioscience"

[0411] > or GenScript. This process uses the previously encoded digital sequence.

[0412] ■ exactly translated into physical DNA strands. o Each DNA sequence is tested to ensure that it matches the

[0413] ■ accurately reflects the original data and the

[0414] * Error correction mechanisms are integrated.

[0415] H 2. Preparation for encapsulation:

[0416] ■ o Before being integrated into the carbon for diamond synthesis, the synthetic DNA must be protected from environmental influences, radiation, and heat. For this purpose, it is encapsulated in multilayer nanocapsules.

[0417] Step 3: Construction of the multilayer nanocapsules

[0418] "The DNA is enclosed in multilayered nanocapsules, which are specifically designed for this purpose."

[0419] > were developed to withstand the extreme conditions during diamond synthesis

[0420] ■ and withstand subsequent environmental conditions.

[0421] 1. Inner Layer - Biocompatible Polymer: The DNA is first encapsulated in a flexible, biocompatible polymer layer. This layer protects the DNA from mechanical shocks and vibrations and provides an isolated, stable environment for the DNA during the embedding process. This polymer layer is designed to withstand high mechanical stress without damaging the DNA.

[0422] 2. Middle Layer - Thermal and Mechanical Barrier (Sapphire or Quartz): o The polymer layer is surrounded by a layer of sapphire or quartz. These materials offer extremely high resistance to thermal and mechanical stresses. During high-pressure, high-temperature synthesis (HPHT), this layer protects the DNA from the enormous temperatures and pressures that occur during diamond formation. o Sapphire and quartz also have the advantage of being chemically inert and therefore do not react with the DNA or other substances in the carbon. o A dense layer of sapphire or silicon dioxide provides protection against extreme heat and pressure. These materials are stable and cannot be deformed even under conditions of over 2000°C and pressures of up to 10 gigapascals (GPa).Such conditions occur, for example, during the high-pressure, high-temperature synthesis process, and these materials guarantee that the DNA nanocapsules remain stable.

[0423] 3. Outer Layer - Radiation Protection and Self-Healing (Graphene and Ceramic Nanoparticles): o The outer layer consists of graphene and special ceramic nanoparticles. This layer provides protection against radiation (especially cosmic and UV radiation) and ensures long-term DNA stability, even in extreme environments. o These nanomaterials have self-healing properties that allow microscopic cracks or damage to be repaired automatically. This keeps the DNA protected even over very long periods.

[0424] Step 4: Integration of the nanocapsules into the carbon

[0425] After the DNA has been securely encapsulated in the multilayer nanocapsules, it is embedded in high-purity carbon, which serves as the starting material for the subsequent conversion into diamond.

[0426] 1. Carbon Embedding: o The high-purity carbon is prepared in a controlled environment to remove any impurities. The DNA nanocapsules are evenly mixed into the carbon material. o The carbon is then further processed in a vacuum environment to ensure that the nanocapsules remain intact and no contamination occurs.

[0427] 2. Preparation for high-pressure, high-temperature synthesis: o The carbon containing the DNA nanocapsules is prepared for conversion into graphite, ensuring that the DNA remains securely enclosed within the carbon.

[0428] Step 5: High-pressure high-temperature synthesis (HPHT) for conversion into diamond

[0429] The carbon-DNA composite is now transformed into a synthetic diamond in an HPHT chamber under extremely high pressures and temperatures. -09-2024-39413001 -Hau ptpost-0055 23“09“2024“39413001“HauPtPns t~0055 PCT / DE2024 / 000080

[0430] 1. Synthesis under extreme conditions: o In the HPHT chamber, the carbon is subjected to pressures exceeding 5 gigapascals and temperatures exceeding 1400°C. These conditions simulate the natural processes of diamond formation in the Earth's mantle. o The nanocapsules containing the DNA remain stable and intact during this process due to their multilayered protective barriers.

[0431] 2. Crystallization to diamond: The carbon crystallizes into a cubic diamond lattice. During this process, the nanocapsules remain securely enclosed within the diamond structure.

[0432] Additionally, the carbon is placed in a high-temperature chamber where it is heated to over 2000°C to be converted into hexagonal graphite. This graphite serves as the starting material for high-pressure, high-temperature synthesis (HPHT), in which the carbon is transformed into synthetic diamond. During this phase, the DNA nanocapsules remain protected and stable.

[0433] Step 6: Engraving an access code and protecting the diamond

[0434] Once the diamond with the embedded DNA has been fully synthesized, it is cut and polished. An engraving is then made on the surface of the diamond.

[0435] 1. Femtosecond laser engraving: o Using a femtosecond laser, a cryptographic access code is engraved into the surface of the diamond. This code can serve as a key to later access or decrypt the DNA data. o The engraving is invisible to the naked eye and can only be made visible under UV light or special optical technologies.

[0436] 2. Plasma and Nanocoatings: To further protect the diamond from environmental influences, a plasma coating is applied, which protects the stone from chemical reactions and mechanical stress. An additional nanocoating provides self-healing properties, ensuring that microscopic damage can be automatically repaired. This significantly increases the diamond's longevity.

[0437] Step 7: Integration of AI-based long-term monitoring

[0438] To ensure the molecular integrity of the DNA over long periods of time, a Cl-based monitoring unit is integrated into the diamond.

[0439] 1. Continuous DNA Monitoring: -09-2024-39413001 -Hau ptpost-0056 23-09-2024-39413001-HauP tPos t-0056 PCT / DE2024 / 000080 o The lab continuously monitors the condition of the DNA by analyzing optical and spectroscopic data. Using technologies such as Raman spectroscopy, the lab detects molecular changes that could indicate potential DNA damage. o The lab uses machine learning algorithms to analyze data in real time and identify potential problems early on.

[0440] 2. Early warning system and self-healing: o If the device detects a deviation or damage, it automatically triggers an early warning system that informs authorized users of potential problems. o The device can also activate self-healing nanoparticles to repair microscopic damage and ensure that the DNA remains intact.

[0441] 3. Predictive analytics: o Through machine learning techniques such as Convolutional Neural Networks (CNN) or Long Short-Term Memory (LSTM), AI creates predictive models that forecast future damage and make it possible to take preventive measures.

[0442] Step 8: Retrieving and using the stored DNA data

[0443] The DNA stored in the diamond can be accessed using specialized reading devices or cloud-based platforms.

[0444] 1. Data Access: Authorized users can use the access code engraved in the diamond to access the stored DNA data. The code allows the DNA data to be decrypted and restored to its original format. Access can be granted via a dedicated app or web interface linked to the AI ​​monitoring unit and the cloud platform.

[0445] 2. Long-term stability of DNA data: Thanks to continuous monitoring by the KfW and predictive analyses, the DNA remains stable and intact even over extremely long periods. -09-2024-39413001 -Hau ptpost-0057 23" 09- 2024-39413001 - H au P t PQS t - OOE7 PCT / DE2024 / 000080

[0446] Example: Technical description and steps for embedding genetic DNA in natural / real and synthetic diamonds

[0447] Step 1: Encoding the data in DNA

[0448] The information to be stored, such as audio recordings, scientific measurements, or binary data, is digitized and converted into DNA sequences. This is done by mapping DNA bases (adenine, guanine, cytosine, thymine) to their binary values ​​(0 and 1). DNA encoding is performed using specialized software, such as Python programs or dedicated DNA encoding platforms, which efficiently translate binary data into the four nucleotides. This technology is already well-established in research. Available providers like Twist Bioscience or GenScript offer advanced DNA synthesis services to efficiently translate the data into DNA sequences.

[0449] Well-known coding algorithms, such as the Reed-Solomon algorithm, are used for error correction to ensure that the DNA remains readable even with minor changes over long periods. This is particularly important if the DNA is to remain stable for thousands of years.

[0450] Step 2: Synthetic production of DNA

[0451] Synthetic DNA is created according to the encoded information. The DNA is synthesized and delivered using standard biochemical methods, with the data precisely contained within the nucleotide sequences. Methods: DNA synthesis is enabled by commercial biotechnology platforms such as Twist Bioscience, which can produce synthetic DNA to exact specifications.

[0452] Step 3: Encapsulation of the DNA

[0453] To protect the synthetic DNA from environmental influences, it is encapsulated in nanocapsules or nanoparticles. These capsules are tiny and fit seamlessly into the diamond structure without affecting the material. The DNA is encapsulated using nanocapsules or other protective materials such as silicon dioxide or biocompatible polymers. Companies like Nanovex Biotechnologies offer custom-designed nanocapsules specifically developed for storing and protecting sensitive biological materials like DNA. Additional protective layers: Optional outer protective layers of synthetic quartz, sapphire, or silicate glass could be added to further protect the DNA from extreme environmental conditions.

[0454] Step 4: Preparing the diamond

[0455] A femtosecond laser is used to create microscopic cavities within the diamond. These cavities serve as secure storage locations for DNA. Precise control (thermal management) of the laser minimizes the thermal impact on the surrounding diamond material and prevents damage to the diamond's structure. The femtosecond laser used operates with ultrashort light pulses at a wavelength of 800 nm, enabling extremely precise processing without affecting the diamond's structure or luster. Companies like Trumpf and Coherent manufacture such advanced laser systems. The pulse duration is typically in the femtosecond range, ensuring the necessary precision.

[0456] Step 5: Embedding the DNA in the diamond

[0457] Using micromanipulation techniques, the DNA is inserted into the prepared cavities of the diamond. This step ensures that the DNA is correctly and stably positioned, without external factors affecting the molecular structure. The nanocapsules fit seamlessly into the microscopic cavities, making the DNA invisible to the naked eye.

[0458] 5.1 Symbolic and artistic transformation

[0459] This process becomes particularly relevant when intangible values ​​such as music, works of art, or personal memories are incorporated into the diamond structure.

[0460] Innovative approach: The idea of ​​encoding emotional meaning through invisible patterns in the diamond structure, visible only under specific lighting conditions, offers a new level of symbolic integration. This concept elevates diamond production from purely material data storage to a multisensory and emotional experience.

[0461] 5.1.1 Data collection and pattern generation:

[0462] First, the emotional or artistic source material (e.g.

[0463] Sound waves from a music recording or the heartbeats of a loved one are digitized and transformed into specific patterns. This data is converted into algorithms that serve as the basis for subsequent encoding in the diamond structure.

[0464] Advanced sound wave visualization techniques can be used to translate sound or emotions into geometric shapes. The resulting digital data patterns are then transferred to the surface of the synthetic diamond.

[0465] 5.1.2 Invisible patterns in the diamond structure:

[0466] Using femtosecond laser technology, these patterns are transferred to the diamond structure with the highest precision. This laser technology enables the creation of microscopic patterns that are invisible to the naked eye but become visible under UV light or other special lighting conditions.

[0467] This process is based on the selective breaking of bonds within the diamond structure, which creates slight variations in the crystal structure. These variations lead to a slight change in light refraction, making the pattern visible under certain conditions. -09-2024-39413001 -Hau ptpost-0059 23-09-2024-39413001-HauP t Po st -0059 PCT / DE2024 / 000080

[0468] The use of a pulsed UV laser with an ultra-short pulse duration is crucial, as thermal effects must be minimized to preserve the integrity of the diamond.

[0469] 5.1.3 Coding of emotional patterns:

[0470] The emotional significance of the source material is transferred into the diamond through metaphorical or artistic interpretation of the pattern. The results are personalized, artistic representations closely linked to the individual or the artwork.

[0471] An example might be: A piece of music is described as a series of

[0472] It encodes light refraction patterns that are only visible under specific lighting conditions. This makes the diamond a unique heirloom that possesses not only material but also emotional value.

[0473] 5.1.4 Control of light reflection by structural modification:

[0474] To create the desired optical effect, the diamond structure could be modified to reflect certain wavelengths of light more strongly than others. This could be achieved through nanogravure or plasma coating (see below). The specific wavelength of light that makes the pattern visible could be tailored to the UV absorption spectra of the diamond.

[0475] Step 6: Embedding and protecting the core with nanotechnology

[0476] After the DNA is inserted, the cavity is sealed with synthetic diamond material. This is again done using femtosecond laser technology to ensure a molecular bond between the synthetic material and the natural diamond. Companies like Element Six produce the synthetic diamond material used for this sealing process.

[0477] 6.1 Additional laser and nanotechnology methods

[0478] This step serves to ensure the long-term durability and resilience of the synthetic core, DNA, or symbolic data within the diamond.

[0479] 6.1.1 Preparation of the synthetic core:

[0480] The synthetic core, containing DNA or symbolically stored data, undergoes a surface treatment. This process cleans the surface at the atomic level to remove impurities and ensure optimal bonding between the core and the plasma or nanocoating. -09-2024-39413001 -Hau ptpost-0060 23-09-2024- 39413001 -H au t PQS t - 0080 PCT / DE2024 / 000080

[0481] 6.1.2 Plasma coating technology:

[0482] The synthetic core is transferred to a plasma chamber where it is treated with an ionized gas phase. This leads to the formation of a thin, reactive plasma layer that makes the surface of the core chemically inert and simultaneously protects it from chemical, mechanical, and thermal influences.

[0483] This layer can be specifically designed to be heat-resistant, radiation-resistant, and chemically inert. This keeps the synthetic core in an extremely stable state.

[0484] 6.1.3 Nanocoatings:

[0485] After plasma coating, an ultrathin nanocoating is applied to the synthetic core, for example made of materials such as silicon dioxide or titanium oxide. These materials are known for their chemical stability and temperature resistance.

[0486] This nanocoating can have self-healing properties. This means that in the event of microscopic cracks or damage, the core is automatically regenerated as released nanoparticles restructure the damaged areas.

[0487] The nanocoatings provide additional shielding against radiation (such as cosmic or UV radiation), which is particularly important when the diamond is used under extreme conditions such as in space travel or in the deep sea.

[0488] 6.1.4 Testing and validation procedures:

[0489] To ensure that the plasma and nanocoating retains its protective properties, the following tests are carried out: o Thermal stability tests: The synthetic core is exposed to extreme temperatures to check the integrity of the nanocoatings.

[0490] Radiation tests: The core is tested for its resistance to radiation to ensure it remains stable even under cosmic or UV radiation. Mechanical stress tests: Here, the core is checked for fracture strength and wear resistance to ensure the nanocoatings can withstand mechanical stress over long periods.

[0491] 6.1.5 Integration of the coated core into the diamond:

[0492] After plasma and nanocoating, the synthetic core is inserted into the prepared cavity of the natural diamond. This process is performed with the highest precision using femtosecond laser technology to ensure seamless embedding. -09-2024-39413001 -Hau ptpost-0061 23-08-2024-33413001 -Hau P t Pos t-0061 PCT / DE2024 / 000080

[0493] The synthetic core is completely sealed and now protected, so that the embedded data remains intact for extremely long periods of time without external influences affecting the stability of the core.

[0494] Step 7: Long-term stability and protection of DNA

[0495] Long-term stability is ensured by several protective layers:

[0496] • Nanocapsules: The DNA is encapsulated in nanocapsules that protect it from environmental influences such as moisture, radiation, extreme temperatures and chemical reactions.

[0497] • Additional materials: Instead of using only quartz or sapphire, the integration of ceramic nanoparticles such as alumina could also be considered. These are resistant to extreme heat and pressure and offer thermal and mechanical protection.

[0498] • Enhancement through hyperdiamonds: Instead of a normal synthetic diamond, protection could be integrated through the production of hyperdiamonds. These possess a higher density and strength, making them particularly durable and resistant to extreme environments such as space or the pressure on Earth.

[0499] Step 8: Certification and Quality Control

[0500] The sealed diamond undergoes a series of quality control tests to certify the integrity of the embedded DNA. Techniques such as X-ray fluorescence (XRF) and spectral analysis are used to ensure that the molecular bond is stable and that there are no cracks or imperfections in the diamond. These tests also verify that the DNA is securely contained within the diamond. Specific tests may also be performed on the DNA's protective layers, such as thermal and mechanical stress tests, to ensure that the nanocapsules or other encapsulation materials remain intact.

[0501] Cosmic radiation tests: If the diamond is designed for extreme conditions such as space, cosmic radiation tests should be performed to ensure that materials like graphene, sapphire, or hyperdiamonds provide long-term protection for DNA. Additionally, stress tests in extreme environments where the diamond might be subjected to mechanical stress should be conducted to ensure the integrity of the stored data.

[0502] 8.1 Extended Certification Procedures

[0503] Objective: The seamless integration of the synthetic core into the natural diamond is ensured through advanced certification methods. -09-2024-39413001 -Main Post-0062 23-09-20 4-39 1 001 -Main Post - 0062 PCT / DE2024 / 000080

[0504] 8.1.1 Visual inspections:

[0505] Using high-precision optical microscopy, the diamond's external structure is examined for any defects or deformations that may have been caused by the embedding process. This examination ensures that the diamond's external luster and structure are preserved.

[0506] 8.1.2 X-ray procedures:

[0507] X-ray fluorescence (XRF) and computed tomography (CT) are used to analyze the molecular structure of the synthetic core and its bond with the natural diamond. These methods ensure that there are no microcracks or air inclusions that could compromise the diamond's stability.

[0508] 8.1.3 Spectroscopic analyses:

[0509] The chemical purity of the synthetic core is tested using infrared spectroscopy (FTIR). This ensures that no unwanted chemical reactions occurred between the synthetic core and the natural diamond during the embedding process.

[0510] 8.1.4 Mechanical stability tests:

[0511] The diamond undergoes mechanical stress tests to verify the strength and hardness of the finished product. These tests ensure that the synthetic core is firmly embedded within the natural diamond and remains stable even under high pressure or mechanical stress.

[0512] 8.1.5 Cosmic radiation tests:

[0513] If the diamond is designed for extreme environments such as space, it undergoes tests for cosmic radiation. These tests ensure that materials like graphene, sapphire, or hyperdiamonds protect the DNA in the long term and that the diamond remains stable even in such environments.

[0514] 8.1.6 Adaptation of the GIA certification procedures:

[0515] The GIA (Gemological Institute of America) certification methods are being expanded to include tests that verify the molecular bond between the synthetic core and the natural diamond. In addition to standard parameters such as optical clarity and brilliance, the technological integrity of the synthetic core and its perfect bond with the natural diamond are being evaluated. -09-2024-39413001 -Hau ptpost-0063 23-09-2024-39413001 -Hau P t Po st -0063 PCT / DE2024 / 000080

[0516] New standards and evaluation criteria could be developed to test the quality of the embedded core as well as its thermal and mechanical stability over long periods of time.

[0517] Step 10: DNA restoration and data decoding

[0518] The long-term protection and storage of DNA and intangible data such as audio recordings, scientific findings, or personal memories require a physically robust yet accessible solution. Thanks to their hardness, stability, and resistance to environmental influences, diamonds offer an ideal storage medium. The greatest challenge, however, lies in the secure recovery of the data and the preservation of the diamond's integrity over extended periods.

[0519] Advanced technologies, such as self-healing diamond surfaces, non-invasive data recovery methods, AI-based analysis, and cloud data integration, are combined. Furthermore, advanced molecular stabilization is introduced through quantum dots and synthetic molecular stabilizers to permanently protect the stored DNA and data structures.

[0520] The process of data recovery and decoding from synthetic and natural diamonds includes a number of innovative approaches that ensure the long-term stability of the stored information and enable its accurate reconstruction.

[0521] 10.1 Advanced molecular stabilization

[0522] To prevent DNA degradation under extreme environmental conditions such as high temperatures or radiation, the DNA is molecularly stabilized within the diamond. This stabilization is achieved through the use of synthetic molecular stabilizers or quantum dots.

[0523] 1. Synthetic molecular stabilizers

[0524] These stabilizing molecules are embedded in the diamond structure to protect the DNA from external influences. They act as molecular shields, preventing damage to the DNA from environmental conditions such as radiation or extreme temperatures.

[0525] 2. Quantum dots

[0526] Quantum dots are nanomaterials that offer high optical and electronic stability. They serve as markers that aid in the precise sequencing and extraction of DNA. Quantum dots stabilize DNA over long periods and help in the reconstruction of damaged DNA by reinforcing the molecular structure and serving as a reference point for repair.

[0527] 10.2 DNA Extraction

[0528] The stored DNA data can be extracted using advanced biochemical and physical methods without damaging the diamond.

[0529] 1. Biochemical processes

[0530] Should the stored data need to be retrieved at a later date, the diamond can be carefully opened and the DNA extracted using biochemical methods such as polymerase chain reaction (PCR). PCR technology makes it possible to amplify small DNA fragments and thus generate a sufficient amount of genetic material for sequencing.

[0531] 2. Non-invasive methods for data extraction

[0532] Using Raman spectroscopy or other optical technologies, DNA can be analyzed and extracted without physically manipulating the diamond. Raman spectroscopy utilizes the interaction of light with the molecular structure of DNA to precisely read the data.

[0533] 3. Laser-based extraction

[0534] A femtosecond laser is used to create microscopic channels in the diamond through which the DNA can be extracted. This method ensures that the diamond is not damaged and prevents the laser heat from damaging the DNA.

[0535] 10.3 Sequencing and decoding the data

[0536] Once the DNA has been successfully extracted, advanced sequencing technologies are used to decode the data into its original formats.

[0537] 1. Advanced sequencing technologies

[0538] Technologies like Illumina HiSeq or Oxford Nanopore enable rapid and precise DNA reconstruction. These technologies convert DNA into binary data, which can then be reconstructed into its original form, such as audio recordings, scientific data, or other formats.

[0539] 2. Decoding back to the original data

[0540] After sequencing, the DNA base pairs are analyzed and translated back into the original binary data. Using advanced algorithms, the reconstructed data is then transformed into its original form, whether as audio recordings, visual data, or scientific information.

[0541] 10.4 Protecting DNA from data loss and degeneration

[0542] A key aspect of the invention is the long-term preservation of the stored DNA data, even under extreme conditions.

[0543] 1. Radiation protection

[0544] Due to the physical properties of the diamond and additional molecular protective layers, the DNA remains protected against harmful radiation.

[0545] Synthetic molecular stabilizers prevent DNA degeneration, even under high radiation exposure.

[0546] 2. Heat resistance through quantum dots

[0547] Quantum dots absorb excess energy and protect DNA from damage caused by extreme temperatures. They ensure that the molecular structure of DNA remains intact, even under extreme environmental conditions.

[0548] 10.5 Self-healing diamond surface -09-2024-39413001 -Hau ptpost-0065 23-09-2024- 33413001 -Hau P t QS t -0065 PCT / DE2024 / 000080

[0549] A self-healing layer is integrated into the diamond structure to automatically repair microscopic cracks or scratches caused by mechanical or environmental factors. This is achieved by embedding nanoparticles or self-healing polymers that are activated upon damage and restore the diamond to its original condition.

[0550] 1. Self-healing coating

[0551] The diamond structure is coated with a self-healing layer of nanoparticles or polymers that react to mechanical damage. As soon as a crack or scratch is detected, the structure activates the nanoparticles to repair the damage through molecular bonds. This ensures that the diamond remains intact over long periods and that the embedded data is protected from physical damage.

[0552] Advantage:

[0553] The self-healing surface extends the lifespan of the diamond and ensures that data storage is not affected by environmental or mechanical influences.

[0554] 10.6 Non-invasive data recovery

[0555] The DNA data embedded in the diamonds is read using advanced optical technologies such as Raman spectroscopy or quantum technology. These technologies make it possible to analyze the molecular structure of the DNA without having to physically open the diamond.

[0556] Advantage:

[0557] The non-invasive access preserves the external properties of the diamond, while the DNA data can be read and restored at any time.

[0558] 10.7 Integration of Artificial Intelligence (AI) and Cloud Technologies for Data Recovery

[0559] The integration of modern technologies such as AI and cloud systems significantly expands the possibilities for using and analyzing the stored data.

[0560] 1. AI-based data analysis

[0561] After successful sequencing, artificial intelligence analyzes the DNA data. The AI ​​recognizes patterns in the sequences and converts them into readable and interpretable formats. This is particularly advantageous in personalized medicine, but can also be used to reconstruct audio recordings or cultural artifacts.

[0562] Cloud data integration

[0563] The data is integrated into a cloud platform to enable secure and dynamic use of the stored information. This ensures that authorized users worldwide have access to the data, while the Diamant serves as a physical backup. The combination of Diamant and cloud provides additional protection and flexibility. -09-2024-39413001 -Hau ptpost-0066 23-09-2024-39413001-HauPtPes t-0066 PCT / DE2024 / 000080

[0564] 3. Dynamic interaction with the data

[0565] By using AI, users can interact with stored data through voice or motion commands. This interactive function is particularly important in cultural or artistic applications where stored voices, music, or other intangible data can be played back on demand.

[0566] Monitoring DNA integrity by Kl

[0567] AI-based data analysis could be used for the continuous monitoring of the DNA embedded in diamonds. Machine learning algorithms enable the regular evaluation of the molecular structure of the DNA and the early detection of anomalies or damage.

[0568] 1. Continuous evaluation:

[0569] The computer regularly monitors the DNA structure and detects changes that indicate potential damage. This ensures that the DNA data remains intact at all times.

[0570] 2. Predictive analysis:

[0571] The AI ​​can make predictions about how long DNA will remain stable and when protective measures are needed.

[0572] 3. Diagnostic check before sequencing:

[0573] Before sequencing, the computer can analyze the functionality of the DNA to ensure it is complete and ready for the extraction process. This increases the success rate of sequencing and improves data recovery.

[0574] Challenges: Thermal stability and DNA protection

[0575] Throughout the entire process, particularly during laser-based cavity fabrication and sealing, pulsed femtosecond laser technology ensures constant temperature control to prevent DNA damage. The nanocapsules not only protect the DNA from environmental influences but also act as an additional barrier against thermal effects, preserving the DNA's molecular structure during the sealing process.

[0576] Maintaining the long-term stability of DNA is one of the greatest challenges, as it needs to be preserved for millennia. Several approaches exist to overcome these challenges:

[0577] 1. Protection against thermal influences

[0578] • Problem: Extreme temperatures can damage the DNA during embedding or long-term storage.

[0579] • Solution: Encapsulation in nanocapsules made of silicate glass, sapphire or quartz provides thermal protection that buffers high temperatures and keeps the DNA intact.

[0580] 2. Protection against radiation -09-2024-39413001 -Hau ptpost-0067 23-09- 2024- 39 13001 -Ha u P t Po st -0067 PCT / DE2024 / 000080

[0581] Problem: Cosmic radiation or radioactive radiation could damage DNA over long periods of time.

[0582] Solution: Materials such as ceramics or sapphire offer a natural barrier against radiation. Encapsulation in such materials protects the DNA from radiation damage.

[0583] 3. Protection against chemical reactions

[0584] Problem: Chemical reactions could destabilize the DNA.

[0585] Solution: Biocompatible polymers such as silicon dioxide are chemically inert and protect DNA from external chemical influences.

[0586] 4. Protection against mechanical stress

[0587] Problem: Mechanical shocks, pressure, or vibrations could damage the DNA.

[0588] Solution: Encapsulation in ceramic nanoparticles offers protection against mechanical stress. Ceramics are extremely resistant to pressure and impacts.

[0589] 5. Long-term durability of the material

[0590] Problem: Material deterioration or wear and tear of the storage medium.

[0591] Solution: Diamonds are the hardest known material and virtually indestructible. By using diamonds as a protective layer, the DNA is safely protected against material degradation and environmental influences.

[0592] By integrating materials like graphene, hyperdiamonds, quantum dots, and self-healing technologies into your concept, you can develop a patentable solution that is not only creative but also technically sophisticated and future-oriented. These ideas offer enormous potential to revolutionize long-term DNA storage and protect it in extreme environments.

[0593] Why certain technologies and materials are used:

[0594] 1. Nanocapsules for DNA protection:

[0595] Why? DNA is very sensitive to external influences such as humidity, temperature, and radiation. Unpackaged, DNA would not survive long in a normal environment, especially over periods of thousands or millions of years.

[0596] Technical solution: The DNA is encapsulated in nanocapsules to protect it from such environmental influences. Nanocapsules can contain materials such as graphene, silicate glass, or polymers that provide a barrier against moisture, chemical reactions, and radiation. 23-09-2024-39413001 -Main post-0068 23-09-2024-39413001-Main Post—OQSS PCT / DE2024 / 000080 ■

[0597] Rationale: Nanocapsules offer a controlled environment that isolates and stabilizes DNA. This is particularly important for long-term storage in extreme environments such as space or underground repositories.

[0598] 2. Use of silicate glass, quartz or sapphire as additional protective barriers:

[0599] Why: While nanocapsules protect DNA from minor environmental influences, extreme temperatures or radiation could still damage it. Therefore, an additional, more robust protective barrier is needed.

[0600] Technical solution: Materials such as silicate glass, quartz, or sapphire are known for their extreme resistance to heat, radiation, and chemical influences. They provide an additional layer that protects the DNA from long-term stress.

[0601] Rationale: These materials are chemically inert and very stable, so they do not suffer from chemical degradation or wear in the long term. They form a protective layer that remains stable for millions of years and protects the DNA from thermal and mechanical influences.

[0602] 3. Thermal stability and barriers:

[0603] Why? High temperatures, such as those that can occur during the sealing of a diamond, could easily damage the DNA. Environments like space or the Earth's core could also create such extreme conditions.

[0604] Technical solution: The use of thermal barriers such as ceramic nanoparticles or graphene layers prevents high temperatures from damaging the DNA during the embedding or sealing process.

[0605] Rationale: Ceramic materials and graphene are known for their excellent thermal insulation properties. These protective layers ensure that the DNA is not destroyed even at extreme temperatures, which is particularly important for long-term storage.

[0606] 4. Radiation protection through materials such as ceramics or hyperdiamonds:

[0607] Why: In extreme environments, such as space or radioactive environments, DNA is exposed to cosmic radiation or radioactive decay processes that could destroy its molecular structure. Technical solution: Materials such as ceramics or hyperdiamonds offer a natural barrier against radiation. They absorb or block radiation, thus protecting DNA from damage caused by ionizing radiation.

[0608] Rationale: These materials are particularly dense and resistant to radiation. They provide an additional layer that prevents radiation from damaging the DNA at the molecular level, thus ensuring safe long-term preservation.

[0609] 5. Self-healing surfaces and protection against mechanical damage:

[0610] Why: Mechanical stresses such as shocks, pressure, or cracks could damage the diamond or its DNA. Especially in extreme environments, such as on Earth or in space, it is important that the diamond remains stable. -09-2024-39413001 -Main post-0069 23-09-2024-39413001-Main Post-00S9 PCT / DE2024 / 000080

[0611] Technical solution: The introduction of self-healing materials can automatically repair even the smallest cracks or scratches in the diamond, thus protecting the DNA inside.

[0612] Rationale: Self-healing technologies are an advanced solution for preventing mechanical damage in the long term. This technology ensures that the diamond remains intact even under extreme conditions and protects the DNA.

[0613] Relationship to the overarching problem

[0614] The specific problem to be solved relates to the long-term stability and safety of DNA in extreme and fluctuating environments, such as:

[0615] • Space (cosmic radiation, temperature differences)

[0616] • Underground storage (extreme pressure, humidity)

[0617] • Extremely long storage life (over millennia)

[0618] The use of nanocapsules, silicate glass, quartz, ceramic materials, self-healing surfaces and hyperdiamonds provides additional assurance that the DNA is not only stored but also protected from all known dangers.

[0619] A combination of X-ray fluorescence analysis, infrared spectroscopy, mechanical stress tests and cosmic radiation tests is used for certification to confirm the stability and integrity of the embedded DNA and diamond material.

[0620] Technical description of AI integration for DNA storage in diamonds

[0621] Step 1: AI-supported monitoring and analysis of DNA

[0622] 1.1 Long-term monitoring by Kl:

[0623] Long-term monitoring of the DNA embedded in the diamonds is carried out by a highly advanced, machine learning-based artificial intelligence (AI). This AI continuously monitors the molecular structure of the DNA for potential damage or changes. The AI ​​monitoring unit is directly integrated into the diamond structure and uses various sensor technologies to collect and analyze data about the DNA.

[0624] • Integration of the AI ​​unit into the diamond: The AI ​​unit consists of nanoscale processors embedded within the diamond. These processors communicate with optical sensors, which are also integrated into the diamond structure. Advanced methods are used in this process. -09-2024-39413001 -Hau ptpost-0070 23-09-2024-39413001-Hau P t Po st -0070 PCT / DE2024 / 000080

[0625] Nanoelectronics are used to enable the placement of the AI ​​systems without affecting the structural or optical properties of the diamond. This embedding takes place during the synthetic diamond manufacturing process, where microholography techniques are used to position the chips and sensors.

[0626] Optical data sources: The KLI collects its data from several optical and spectroscopic methods. A primary method is Raman spectroscopy, which records the vibrational patterns of DNA base pairs. This technique is based on the interaction of laser light with molecules, whereby the scattered light reveals specific vibrational patterns of the molecules that correlate with the state of the DNA. Additionally, infrared (IR) spectroscopy is used, which measures the absorption of infrared light by molecules to monitor chemical bonds. The combination of these technologies enables precise monitoring of the chemical and structural integrity of DNA.

[0627] Integrated data collection and analysis: The AI ​​uses data collected by sensors and applies pattern recognition algorithms to identify deviations from intact DNA. The combination of Raman and infrared spectroscopy with fluorescence spectroscopy (which analyzes the natural luminescence of DNA under specific light conditions) enables the AI ​​to immediately detect and react to changes in the chemical structure of DNA.

[0628] 1.2 Molecular signal acquisition and pattern recognition:

[0629] The captured optical signals are analyzed using machine learning to identify specific molecular patterns.

[0630] Advanced pattern recognition algorithms: The AI ​​uses deep learning and recurrent neural networks to recognize patterns in the molecular vibrations of DNA. These algorithms are specifically trained to identify molecular damage such as double-strand breaks, base loss, or chemical alterations. By integrating convolutional neural networks (CNNs), the AI ​​can visualize and uncover anomalies in molecular patterns that would be undetectable with conventional detection methods.

[0631] Threshold system for anomalies: The Kl establishes thresholds for molecular deviations that indicate impending damage. Based on patterns observed during data collection, mathematical models are used to calculate statistical deviations, enabling early detection of damage. These models utilize historical data on the state of DNA to precisely define what constitutes a "normal" state and when damage is detected.

[0632] 1.3 Predictive Analysis and Early Warning System: -09-2024-39413001 -Hau ptpost-0071 23-08-2024-39413001-HauPtPos t-0071 PCT / DE2024 / 000080

[0633] The clinic uses predictive analysis models to detect potential damage to DNA early and intervene before irreversible damage occurs.

[0634] • Long-term modeling: The AI ​​creates predictive models based on time series analyses that consider both current and historical data. Algorithms such as Long Short-Term Memory (LSTM) are used, enabling the AI ​​to detect time-delayed patterns that indicate gradual DNA damage. This predictive analysis determines the risk of DNA degradation and issues timely warnings.

[0635] Predictions for molecular instability: The AI ​​integrates thermodynamic models to calculate when specific environmental influences, such as heat or radiation, might damage DNA. Based on this data, the AI ​​can predict the probability of damage or molecular breakdown in the next minutes, hours, or even years.

[0636] Step 2: Early warning systems and automatic reporting

[0637] 2.1 Automatic detection of damage and activation of the early warning system:

[0638] The AI ​​reacts immediately when it detects potential damage to DNA. The early warning systems are activated by algorithms that monitor critical thresholds in the molecular patterns.

[0639] • Detailed anomaly detection: The KL uses Support Vector Machines (SVMs) to monitor critical thresholds. Once these thresholds are exceeded, a detailed analysis of the molecular structure is performed to determine the extent and cause of the damage. The KL analyzes various factors, such as thermal instabilities or radiation exposure, to understand how the damage occurred.

[0640] 2.2 Reporting and notification:

[0641] As soon as anomalies are detected, the computer automatically generates reports containing detailed information about the condition of the DNA and the necessary repair measures.

[0642] • Automated reports: The computer generates detailed reports that include the following:

[0643] 1. Current state of the DNA: A precise molecular analysis of the damage.

[0644] 2. Root cause analysis: Description of how the damage occurred (e.g., thermal effects, radiation, mechanical stress).

[0645] 3. Proposed repair measures: The plaintiff provides recommendations for action, e.g., activation of protective layers or execution of self-healing protocols. -09-2024-39413001 -Main post-0072 23-09-024-3913001 -Main post i-0072 PCT / DE2024 / 000080

[0646] 4. Alerts: Early warning messages are sent to the user and central monitoring units. These reports are transmitted to authorized users via secure cloud systems.

[0647] Real-time warning system: In the event of impending damage, a real-time alert is sent to the user, either via a mobile application or a dashboard that continuously communicates with the AI. The use of cloud services ensures that users worldwide have access to these reports and can take action in real time.

[0648] Step 3: AI-assisted repair and self-healing

[0649] 3.1 Repair of damaged DNA:

[0650] Should the computer detect that DNA sequences are damaged, an automated repair process is initiated. This is based on machine learning algorithms and the control of nanoparticles.

[0651] Detailed repair process: Using recursive neural networks (RNNs), the AI ​​analyzes the damaged DNA strands and accesses a database of intact DNA sequences. The AI ​​compares the damaged sequences with the stored intact patterns and calculates how the defective DNA segments can be reconstructed. With the help of error correction models, such as the Reed-Solomon algorithm, the damaged sequence is replaced and the original DNA structure is restored.

[0652] 3.2 Self-healing process through nanoparticles:

[0653] In the case of physical damage within the DNA, the Cl activates a self-healing mechanism based on the release of nanoparticles.

[0654] • Materials and Function of the Nanoparticles: The nanoparticles consist of intelligent materials such as graphene nanoparticles, which are capable of repairing chemical bonds and stabilizing structures. These particles are embedded in the diamonds and are activated by electromagnetic signals from the computer. Once the damage is located, the nanoparticles are precisely guided to the affected area, where they initiate chemical processes to repair the damaged DNA strands.

[0655] Molecular interaction and self-healing: The nanoparticles bind to the damaged areas and restore the chemical bonds between the DNA bases. This process occurs through molecular reconfiguration, where the nanoparticles act like a scaffold, supporting the strands while chemical reactions take place that regenerate the DNA. The chemical process of self-healing involves the resynthesis of phosphate and sugar bonds that connect the DNA bases. The AI ​​monitors this process in real time to ensure that the healing is complete before further damage occurs.

[0656] Continuous monitoring during healing: During self-healing, the Cl continuously monitors the progress of the process. Spectral analyses, -09-2024-39413001 -Hau ptpost-0073 23-09-2024- 39413001 - H aut P □ st - 0073 PCT / DE2024 / 000080, performed using Raman and infrared spectroscopy, confirm that the DNA structure is fully regenerated and no anomalies remain. Should errors occur during the self-healing process, the Cl dynamically adjusts the quantity and position of the nanoparticles.

[0657] Step 4: Adaptation to environmental influences and protective mechanisms

[0658] 4.1 Thermal protection mechanisms:

[0659] The Cl ensures that the DNA remains protected even under extreme environmental conditions by activating thermal protection layers that protect the DNA from excessively high temperatures.

[0660] • Function of the thermal barriers: The graphene layers embedded in the diamonds act as a thermal barrier, dissipating heat and thus preventing heat damage to the DNA. The KL continuously monitors the temperature and, if necessary, initiates a cooling mechanism enabled by the thermal conductivity of the graphene. Additionally, the KL uses ceramic nanoparticles to shield against radiation and stabilize the DNA storage.

[0661] 4.2 Adaptation to radiation and environmental influences:

[0662] The Kl monitors environmental conditions such as radiation, pressure and chemical influences and adjusts its protective measures accordingly.

[0663] • Radiation-resistant protective layers: Special protective layers made of ceramic and graphene insulate the DNA from harmful cosmic radiation. As soon as the computer detects an increase in radiation levels, it activates additional protective layers that absorb radiation and insulate the DNA.

[0664] Step 5: Long-term monitoring and data recovery

[0665] 5.1 Long-term monitoring and predictive models:

[0666] The computer continuously monitors the state of the DNA and creates predictive models to detect long-term stability problems.

[0667] • Long-term, real-time monitoring: The AI ​​continuously processes optical and molecular data and generates regular reports on the state of the DNA. These reports are stored in the cloud and are available to authorized users at any time. Simultaneously, the AI's predictive models dynamically adapt its protection strategies to respond to environmental changes.

[0668] 5.2 Data extraction and recovery:

[0669] Should a critical condition arise, the computer can extract DNA data before irreversible damage occurs.

[0670] Non-invasive extraction technologies: The company uses advanced optical technologies such as Raman spectroscopy and femtosecond lasers to extract DNA data without physically opening the diamond. -09-2024-39413001 -Hau ptpost-0074 23- 09- 2024- 39413001 - H au P t Po st - 0074 PCT / DE2024 / 000080

[0671] These technologies enable the precise extraction of DNA sequences, which can then be decoded and reconstructed.

[0672] Production complexity

[0673] The production of these highly advanced diamonds, especially in conjunction with laser technology and molecular bonding techniques, is technically demanding. The challenge lies in finding ways to increase efficiency in order to reduce complexity and make production cost-effective and scalable.

[0674] 1. Automation of production processes

[0675] 1.1 Automated laser systems

[0676] The use of highly advanced, automated laser systems could significantly increase the precision and efficiency of production. These systems could precisely process the diamonds while simultaneously reducing production time. Automation would minimize the error rate, resulting in consistent results and increased profitability.

[0677] 1.2 Robotic micromanipulation techniques

[0678] In production, robotic micromanipulation techniques already used in the semiconductor and automotive industries could be employed. These robots could automate the precise placement of synthetic cores and materials within the diamond. This would increase accuracy and speed, leading to a scalable mass-produced model.

[0679] 2. Scalability through modular production processes

[0680] The production process could be designed modularly to optimize different steps independently. This modularization would make it possible to improve individual modules while simultaneously accelerating the overall process.

[0681] 2.1 Generation of laser cavities

[0682] The precise creation of cavities using laser technologies could be developed as a standalone module in parallel with material integration. This would enable the simultaneous processing of multiple diamonds and increase processing capacity.

[0683] 2.2 Material integration

[0684] The material integration step, in which the synthetic core is inserted into the diamond, could also be modularized. This would make it possible to integrate different materials (e.g., gold, silver, titanium) without interrupting the production flow. This would allow different product lines to be processed simultaneously. -09-2024-39413001 -Hau ptpost-0075 23-09-2024“3S413001-HauPtPos-t“0075 PCT / DE2024 / 000080

[0685] 2.3 Surface sealing

[0686] The molecular bonding and sealing of materials within the diamond could be implemented as a further module. This could be adapted to customer requirements to allow for both visible and invisible inclusions. Modularization makes production more flexible and efficient.

[0687] 3. Cost efficiency through technological innovation

[0688] 3.1 Artificial Intelligence (AI) and machine learning

[0689] The use of AI-supported systems could play a crucial role in optimizing the production process. Machine learning could collect data about production and make adjustments in real time to identify and improve inefficient steps.

[0690] 3.2 New materials and cheaper alternatives

[0691] Innovative materials and more cost-effective alternatives to expensive technologies such as laser systems and molecular bonding methods could be explored. These technologies would help reduce production costs without compromising the quality or integrity of the final product. This could be particularly useful for producing larger quantities of essence diamonds for the luxury mass market.

[0692] 4. Partnerships and Technology Transfer

[0693] 4.1 Technology partnerships

[0694] Close collaboration with technology companies specializing in laser technology and joining methods could lead to the development of new processes that shorten production time without compromising quality. Cooperation with universities and research institutes could contribute to the development of innovative solutions for industrial applications in diamond production.

[0695] 4.2 Automation companies

[0696] Collaborations with automation companies could lead to the integration of robot-controlled micromanipulation and AI-based production processes into manufacturing. This could increase production volume, reduce labor costs, and improve efficiency.

[0697] 4.3 Technology platforms and storage solutions

[0698] Technology companies specializing in cybersecurity, AI, and data storage could be valuable partners in developing efficient production systems and secure data storage solutions. Banks, in particular, might be interested in using DNA-based data storage as an extremely secure method for preserving sensitive information. -09-2024-39413001 -Hau ptpost-0076 23-09-2024- 9 13001-HauP t-Pos -t-0076 PCT / DE2024 / 000080

[0699] Commercialization potential of DNA embedding in synthetic and natural diamonds

[0700] 1.1 DNA-based luxury jewelry and heirlooms

[0701] • Innovation: Embedding genetic DNA in diamonds creates unique pieces of jewelry that not only have material value but also embody the identity and heritage of the wearer. This DNA remains intact for millions of years, granting its owners a symbolic form of immortality.

[0702] • Commercial opportunities: o Exclusive jewelry market: Custom-made jewelry with encapsulated DNA offers the super-rich the opportunity to secure their identity and personal values ​​for future generations. The diamonds could become emotionally charged heirlooms passed down within families. o Symbol of immortality: This technology could be marketed as a symbol of immortality and the legacy of the super-rich who wish to preserve their DNA for the future. Such diamonds could be preserved for posterity, representing a physical legacy that extends far beyond death.

[0703] 1.2 Exclusivity and Prestige

[0704] The super-rich place great value on exclusivity and uniqueness. The possibility of preserving their DNA or memories in a diamond offers a form of luxury that goes far beyond material possessions. These DNA diamonds could be marketed as bespoke status symbols.

[0705] Commercial opportunities: o Symbol of eternity: The concept of storing one's DNA or important memories in an indestructible material like a diamond could be marketed as the ultimate prestige symbol. This would appeal to the super-rich target group, who are looking for unique and lasting ways to preserve their personal identity. o Limited editions: Brands could launch exclusive "hereditary diamond" collections designed specifically for the super-rich. These collections could represent a combination of aesthetic luxury and scientific innovation.

[0706] 1.3 Personalized services for the super-rich

[0707] An additional market could be the exclusive service for the super-rich that allows them to create a personal "genetic time capsule." This capsule could contain genetic data, memories, or even the individual's voice, encased in an indestructible diamond and preserved for future generations.

[0708] Commercial opportunities: o Immortality through cloning: In the future, technology could be able to use genetic data for cloning or genetic restoration. For the super-rich, this could appeal to the idea of ​​immortality by securing a "genetic copy" of themselves for the future. This concept could create a new market in the area of ​​long-term storage of personal data.

[0709] 1.4 Exclusivity through interstellar communication

[0710] One visionary application could be the storage of DNA in diamonds for interstellar communication and space missions. Super-rich individuals striving for cosmic immortality could use this technology to encapsulate their DNA in indestructible capsules and send it into space. This would serve not only as an emotional legacy but also as a futuristic status symbol.

[0711] Market outlook for the super-rich: security and long-term protection

[0712] Besides emotional and symbolic immortality, the security and protection of sensitive personal data plays a central role for wealthy clients. Embedding DNA in diamonds offers not only physical storage but also protection against manipulation, destruction, and cyberattacks.

[0713] 2.1 Embedding genetic DNA in diamonds

[0714] Innovation: The long-term storage of biological data in diamonds that are protected from radiation and chemical reactions.

[0715] Commercial opportunities:

[0716] Luxury segment for personalized DNA jewelry: A niche market targeting affluent customers, offering personalized jewelry incorporating genetic information. Individual DNA is embedded in the diamond and sold as part of heirlooms or symbolic gifts. Exclusive biotechnology service: Services for individuals who wish to secure their genetic data for future biotechnological or medical applications. Sales could target biobanks, research institutions, and private individuals. Long-term data storage: Potential market for medical institutions, insurance companies, or government organizations seeking to secure genetic information for the long term. Such applications could be particularly in demand in genome research and personalized therapies.

[0717] 2.2 Intangible DNA Embedding (Preservation of Symbolic Values) -09-2024-39413001 -Hau ptpost-0078 23-09-2024-39413001-HauP-t Pas -t -0078 PCT / DE2024 / 000080

[0718] Innovation: Storing intangible data (e.g., music, voices, memories) in diamonds.

[0719] Commercial opportunities: o Emotional luxury jewelry: Creating an entirely new product category in the luxury jewelry market, where customers can have memories of loved ones, personal audio recordings, or significant life events stored in diamonds. o Memorial and heirloom market: This technology could be used to preserve the legacy of deceased individuals in physical form and immortalize emotional value for future generations. o Cultural and historical preservation: Museums, artists, and historians could immortalize significant cultural works in DNA form within diamonds and use them as indestructible data storage devices. Artists could create "essence diamonds" that immortalize their works in a form that will last for generations.

[0720] Market opportunities through long-term storage and security

[0721] 3.1 Tamper-proof storage of sensitive data

[0722] Innovation: Virtually indestructible storage of sensitive data in DNA-encapsulated diamonds, protected against hacker attacks.

[0723] Commercial opportunities: Cybersecurity market: The data security market is booming. Governments, businesses, and military organizations could be interested in this solution for securely storing highly sensitive information over long periods. Such data could play a crucial role, especially in crisis or conflict situations. Confidential archiving of government reports and state secrets: This technology could be positioned as an exclusive service for governments and international organizations that require long-term security for their most important documents.

[0724] 3.2 Long-term archiving of cultural and scientific data

[0725] Innovation: Archiving cultural and scientific works in DNA-encapsulated diamonds for millennia.

[0726] Commercial opportunities: o Long-term archiving: Scientific institutions, museums, and libraries could use this technology to protect their valuable collections from physical and digital threats. o Partnerships with universities and research institutions: Collaborations could be established with scientific institutions that require DNA-based long-term archiving solutions to ensure that important discoveries are preserved for future generations.

[0727] Medical Applications and Personalized Medicine -09-2024-39413001 -Hau ptpost-0079 23-09-2024-39 13001-HauPi Pes i -007 PCT / DE2024 / 000080

[0728] 4.1 DNA-based medical implants

[0729] • Innovation: Storing genetic data and monitoring vital functions via biocompatible diamond implants.

[0730] • Commercial opportunities: o Personalized medicine: Growing demand for preventive and personalized medicine opens up opportunities to market implants as diagnostic tools that continuously monitor data and detect diseases early. o Partnerships with medical technology companies: Collaboration with manufacturers of medical devices and implants to develop diamond-based solutions for use in genetics and preventive medicine.

[0731] 4.2 Genetic profiles for personalized medicine

[0732] Innovation: Storing genetic profiles in diamonds for customized medical treatments.

[0733] • Commercial opportunities: o High-security DNA storage solutions: Hospitals, research laboratories and patients could use this technology to securely and permanently store genetic profiles, thus enabling personalized therapies and medical treatments.

[0734] Realistic and current applications in the luxury segment

[0735] 5.1 Luxury jewelry with personalized memories

[0736] • Innovation: Integration of DNA, voices, or memories into jewelry.

[0737] • Commercial opportunities: o Exclusive jewelry market: Personalized jewelry could be marketed as highly emotional products, passed down through generations as heirlooms. Luxury brands could release "signature" jewelry collections that emphasize emotional bonds and cultural significance.

[0738] 5.2 Sustainable carbon diamonds from artworks

[0739] Innovation: Production of diamonds from the carbon of artworks or music.

[0740] Commercial opportunities: o Art market: There is the possibility of revolutionizing the art market by creating diamonds that preserve the essence of famous artworks or musical pieces. Artists could create limited editions that maintain the value of their work beyond time and serve as indestructible art objects.

[0741] Visionary Future Applications -09-2024-39413001 -Hau ptpost-0080 23-09-2024-39413001-HauP t Po s t-0080 PCT / DE2024 / 000080

[0742] 6.1 Cloning and Restoration of Extinct Species

[0743] • Innovation: Using stored genetic data to restore extinct species.

[0744] • Commercial opportunities:

[0745] □ Cloning and gene research: DNA-based storage systems could be used in the future by research institutes and biotechnology companies to ensure the survival of species or to restore extinct species. This could attract large investments from research institutions and environmental organizations.

[0746] 6.2 Interstellar Communication and Storage

[0747] • Innovation: Using diamonds as indestructible time capsules to transport data about humanity into space.

[0748] • Commercial opportunities: o Space exploration and interstellar missions: Collaboration with space agencies such as NASA or private space companies could lead to messages and information stored in diamonds being transmitted to future civilizations.

[0749] Summary of commercialization opportunities

[0750] The embedding of DNA in synthetic and natural diamonds opens up numerous commercial opportunities, particularly in the following areas:

[0751] • Luxury goods (personalized jewelry and sentimental heirlooms)

[0752] • Biotechnology and medicine (long-term DNA storage, personalized medicine)

[0753] • Cultural and scientific archives (long-term archiving of cultural treasures and scientific data)

[0754] • Data security (tamper-proof storage of sensitive information)

[0755] • Future-oriented markets (space communication, genetic research)

[0756] Further market potential

[0757] Luxury market

[0758] Personalized and unique jewelry pieces that gain deeper meaning through the integration of memories and emotional values ​​into diamonds.

[0759] • Monetization: These pieces of jewelry can be offered as exclusive heirlooms to be passed down through generations. The potential for selling such personalized, exclusive products in the luxury segment is significant, especially given their emotional appeal and uniqueness.

[0760] Music and film industry

[0761] Collaborations with artists to create special “essence diamonds” that symbolize an artist’s creative process.

[0762] Monetization: Artists could create limited collector's editions of essence diamonds associated with significant cultural moments. These diamonds could become collector's items and part of exclusive art installations.

[0763] Scientific archives

[0764] Long-term storage of scientific data that can be preserved for millennia, such as the cosmic signature of the Big Bang or significant scientific breakthroughs.

[0765] Monetization: Historical and scientific institutions could use this technology to preserve important documents and discoveries. Selling such services to museums or archives would provide a continuous source of income.

[0766] Sport and motorsport

[0767] An unforgettable memory of great sporting moments such as the engine sound of Formula 1 racing cars or the last serve of a tennis star.

[0768] Monetization: The sports industry could offer limited series of diamonds containing DNA-encoded memories of iconic sporting events. These could be sold as high-priced collector's items, especially to fans and collectors.

[0769] Additional market applications

[0770] Fashion and lifestyle brands

[0771] Personalized luxury accessories: In collaboration with high-end fashion and lifestyle brands, personalized accessories such as watches, cufflinks, or bag charms could be created with symbolically integrated essence diamonds. These could symbolically capture important moments from the wearer's life, bringing a new emotional value to the world of luxury fashion.

[0772] Monetization: Brands like Cartier, Louis Vuitton, or Hermès could offer limited collections of such accessories, incorporating personalized memories from buyers, thus creating exclusive products in the luxury segment. -09-2024-39413001 -Hau ptpost-0082 23-08-2024-39413001 -HauP t Po st -0082 PCT / DE2024 / 000080

[0773] Expansion into the art market

[0774] Diamonds as works of art: Collaboration with artists and art galleries to exhibit Essence diamonds as art objects that symbolize iconic moments from history or pop culture.

[0775] • Monetization: These diamonds could be offered at exclusive art auctions and exhibitions and fetch high prices, as they are considered unique works of art that immortalize cultural values.

[0776] Expansion into the education sector

[0777] Educational partnerships: Schools and universities could encode significant scientific discoveries, historical records, or cultural artifacts in diamonds, thus preserving them for posterity.

[0778] • Monetization: Educational institutions could use these services for archiving projects or as premium services for wealthy donors interested in preserving knowledge and culture.

[0779] Sustainability perspective

[0780] Environmentally friendly production

[0781] Synthetic diamonds as a sustainable alternative: Compared to mined diamonds, synthetic diamonds cause significantly less environmental damage. They do not require mining, which is often associated with high CO2 emissions, land destruction, and social exploitation.

[0782] • Monetization: The market for eco-friendly luxury goods is growing. Your products could be marketed as a "green" alternative to conventional diamonds, which could particularly appeal to environmentally conscious consumers.

[0783] • Lower carbon footprint: The production of synthetic diamonds using processes such as CVD (Chemical Vapor Deposition) or HPHT (High Pressure High Temperature) requires less energy and causes less environmental damage compared to traditional mining methods. This could be highlighted in marketing to emphasize the product's sustainability.

[0784] Ethical production

[0785] Conflict-free diamonds: While traditional diamond mining is often associated with ethical problems, such as the financing of conflicts or the exploitation of labor, your approach offers an ethically sound alternative.

[0786] Monetization: The increasing demand for ethically sourced luxury products can justify higher selling prices. Your product could be positioned as a premium product in ethical and environmentally conscious markets. -09-2024-39413001 -Main Post-0083 23-09-2024-33413001-Main Post Office Post Office -0083 PCT / DE2024 / 000080

[0787] Cooperation opportunities and financing

[0788] Strategic partnerships

[0789] • Luxury brands: Close collaboration with established luxury brands such as Cartier, Tiffany & Co., Louis Vuitton, or Hermès could help bring the technology to market quickly. These brands could offer limited editions of “essence diamonds” that symbolize significant cultural or emotional values.

[0790] • Monetization: The sale of such unique diamonds by luxury brands could not only generate high margins, but also increase the brand's awareness and prestige.

[0791] Private equity and venture capital

[0792] • Private equity firms: Investors active in the luxury goods and technology sectors could have a strong interest in this project. Firms like Blackstone or CVC Capital Partners, which have already invested in luxury brands, could be ideal targets.

[0793] • Venture Capital: Technology-oriented VC funds such as Sequoia Capital or Andreessen Horowitz would also be potential investors. The combination of technology, innovation, and sustainability could be particularly attractive to these funds.

[0794] Technology transfer and partnerships

[0795] Universities and research institutes: Collaboration with universities could contribute to optimizing technology and further developing production techniques. Technology platforms working in the fields of cybersecurity, storage, or artificial intelligence (AI) could have a strong interest in such collaborations.

[0796] Technology platforms and banks: Banks might be interested in using DNA-based data storage for the secure safekeeping of highly sensitive information. Technologies for secure, decentralized storage in diamonds could also be of interest to large tech companies seeking solutions for data protection and long-term archiving.

[0797] Potential for the future

[0798] This technology opens up unprecedented possibilities for the long-term storage of biological and digital information. This could be used not only for archiving genetic information, but also for preserving cultural heritage, scientific data, or personal memories, which could be safely stored and retrieved over millennia. The diamond becomes a symbolic and scientific capsule of life, connecting the past with the future.

[0799] The implementation of these ideas leads to an extremely resilient solution that could enable future generations to reconstruct DNA and related data -09-2024-39413001 -Hau ptpost-0084 23-09-2024-39413001-HauP-tPost-0084 PCT / DE2024 / 000080 in a potentially distant future. This marks a turning point in the way we think about transience and the preservation of life and information.

[0800] The patentable core of the invention

[0801] The concept of storing DNA data within a diamond represents a revolutionary method for permanently and securely preserving intangible and ephemeral information in a physical medium. It utilizes modern technologies such as DNA synthesis, femtosecond lasers, and micromanipulation to embed data at the molecular level into one of nature's hardest and most durable materials. This invention combines scientific precision with emotional and artistic expression, creating a revolutionary approach to immortalizing memories and meaningful moments in physical form.

[0802] The core of the patent lies in the combination of encoding data in DNA, embedding it in synthetic and real diamonds using precise laser and micromanipulation techniques, and the long-term durability and recoverability of the stored data.

[0803] Transferring the essence of the immaterial into physical space

[0804] The technology makes it possible to capture fleeting or past things like voices, heartbeats, or even the cosmic signature of the Big Bang. This intangible and often emotionally charged data takes on a physical form through storage in a diamond. This not only gives the technology artistic and emotional value but also makes it a symbol for the perpetuation of transience and the past.

[0805] Technological uniqueness and deeper artistic value

[0806] This technology is not only a scientific innovation but also an artistic tool. It allows past moments to be captured in a new, physical way. The process of embedding DNA in a real diamond creates the possibility for these memories to become tangible and lasting.

[0807] The fusion of art and science is a key aspect here. With this technology, the diamond, traditionally a symbol of luxury and longevity, becomes a receptacle for memories and data, forever enshrined within it. In this way, the diamond transforms not only into a luxury item but also into an emotional artifact, preserving fleeting, past, or transient things for eternity.

[0808] The Transformation of the Incomprehensible

[0809] The concept of transformation is of central importance to this technology. In this way, something tangible emerges from the intangible. This is not merely an act of -09-2024-39413001 -Hau ptpost-0085 23-09-2024-33413001 -HauPt Pos i-0035 PCT / DE2024 / 000080

[0810] Data backup, but also an artistic expression of the deep human desire for remembrance and perpetuation.

[0811] Emotional, cultural and artistic depth

[0812] This technology uniquely combines science, emotion, and art. The diamond becomes a carrier of memories that would normally only exist in our minds or in the digital world.

[0813] For example, preserving the voice of an artist like Michael Jackson in a real diamond creates a deeper connection between the object and the person who cherishes it. This goes far beyond the symbolic burning of artworks or the preservation of artifacts. The physical embodiment of a memory that was previously intangible elevates its emotional and cultural depth to a new level.

[0814] A new concept of luxury and timelessness

[0815] The diamond, a symbol of eternity and luxury, is reinterpreted through this technology. It is no longer seen merely as a precious material, but also as a time capsule, preserving moments of the past for the future. This gives the concept of luxury a deeper, artistic, and scientific meaning.

[0816] Fusion of time and matter

[0817] By storing ephemeral data within a diamond, this technology achieves a fusion of time and matter. This revolutionary concept redefines the boundaries of the past, making those moments tangible and physical. By linking the data with the eternal structure of the diamond, past, present, and future are uniquely merged.

[0818] Storing the essence of past moments in a diamond

[0819] The ability to store the essence of a past voice, an imperishable heartbeat, or even the cosmic creation of the universe within a diamond lends this technology a philosophical dimension. It's not just about storing information, but also about capturing and preserving the essence of moments that seem to be gone forever.

[0820] Through the integration of emotions, science, luxury, and art, the diamond becomes a vessel of essence, containing the DNA of voices, heartbeats, or events. The ability to make this essence tangible is the true value of this invention.

[0821] The technology described here for embedding DNA and intangible values ​​in diamonds goes far beyond traditional storage technologies. It offers not only a solution for the long-term storage of data, but also a new way to physically preserve memories, emotional values, and cultural essences. The combination of state-of-the-art laser technology, DNA encoding, and molecular bonding creates a new dimension of -09-2024-39413001 -Hau ptpost-0086 23-0S-2024“39413O01“HauPt os t-0086 PCT / DE2024 / 000080

[0822] Data storage that uniquely combines science, art, and luxury.

[0823] This invention represents a profound shift in how we think about preserving memories and information. By uniting scientific precision, emotional depth, and artistic expression, the diamond becomes a receptacle for the essence of life, cultural identity, and emotional memory. This creates a connection between past, present, and future that previously existed only symbolically.

[0824] The long-term durability, the indestructibility of the storage medium, and the profound emotional significance of this technology make it a revolutionary innovation that will sustainably transform both the luxury market and the worlds of science and art. The ability to preserve fleeting moments, data, and memories in an indestructible medium like a diamond opens new horizons in data storage, emotional memory, and cultural preservation.

[0825] This detailed technical innovation demonstrates the possibility of storing both symbolic representations of intangible values ​​and physical data using DNA within a diamond or synthetic diamond. Two distinct and revolutionary approaches are presented, offering unique opportunities to immortalize fleeting or past moments.

[0826] The first approach focuses on the symbolic embodiment of intangible values. Through advanced laser and molecular bonding techniques, fleeting moments such as voices, heartbeats, or emotional memories are physically represented in a synthetic diamond, which is then seamlessly integrated into a natural diamond. This method offers a creative and emotional way to preserve significant memories in symbolic, material form.

[0827] The second approach uses DNA as a storage medium to encode real-world data such as audio recordings, scientific signatures, or medical information. This data is translated into DNA sequences and embedded at the molecular level within the diamond to ensure its permanence. The stored information can later be decoded and retrieved, making this method a breakthrough in both data preservation and the physical manifestation of previously intangible moments.

[0828] Together, these two approaches make it possible to experience the essence of the past in the present and to connect science, art, emotion, and sustainability in a groundbreaking way. Whether it's about preserving the voice of a loved one, the cosmic signature of the Big Bang, or the heartbeat of an unborn child, this technology serves not only as a tool for data storage but also as a manifesto of immortality, capturing emotions and memories forever within the structure of a diamond.

[0829] In summary, the combination of the unparalleled durability of diamonds and their ability to store DNA makes this technology a groundbreaking solution for the long-term preservation of humanity's most valuable assets—be they scientific breakthroughs, personal memories, or cultural legacies. This innovation promises to revolutionize how we think about data storage and the preservation of our emotional and historical heritage. Furthermore, it opens up entirely new perspectives for various industries, such as medicine, cultural preservation, and the luxury market, regarding the storage and protection of data and memories across millennia.

[0830] Preliminary patent claims

[0831] Patent application: Method for converting intangible works of art into synthetic diamonds

[0832] Patent claim 1: Selection and digital conversion of intangible assets and works of art

[0833] Patent claim:

[0834] Any digitized information, including but not limited to audio, visual, scientific, literary, symbolic, biological, or other data, is converted into biochemical sequences, such as DNA, RNA, or alternative synthetic or natural base sequences, by appropriate algorithms or procedures. These sequences are based on binary coding or other data encoding methods and assign base pairs to the respective data structures, including but not limited to adenine, cytosine, guanine, thymine, or uracil.

[0835] Technical description:

[0836] Conversion of the captured data into digital formats using technologies including audio recording devices, optical capture systems, 3D scanning, EM technologies, microphones, OCR systems, and motion tracking systems to ensure that the original artwork or its intangible significance is captured in detail. The captured data can be transferred through various processes into three-dimensional geometric or alternative models representing any form of physical or digital structure.

[0837] Claim 2: Production of a physical model from sustainable material

[0838] Patent claim:

[0839] The use of any sustainable, biodegradable, or reusable materials, including but not limited to wood, polymers, metals, or materials obtained through synthetic or biological processes. A method for producing a physical model from a sustainable material to serve as the basis for the synthesis of a synthetic diamond. Use of materials, including but not limited to wood, biodegradable plastics, reusable metals, recyclable polymers, and sustainable, biodegradable, or renewable materials that can be processed into physical models mechanically, chemically, or by additive manufacturing processes.

[0840] Claim 3: Pyrolytic conversion of the physical model into carbon

[0841] Patent claim:

[0842] A method for the pyrolytic conversion of a physical model into pure carbon for further use in diamond synthesis, comprising:

[0843] 3.1 The physical model is subjected to thermal decomposition in a vacuum furnace under exclusion of oxygen.

[0844] 3.2 Decomposition takes place in a temperature range of 300°C to 3000°C, depending on the material and the desired carbon structure. Organic compounds are completely decomposed, while the carbon residue is converted into a highly pure form suitable for subsequent diamond synthesis. Decomposition can be carried out under reducing, oxidizing, or neutral atmospheric conditions.

[0845] Technical description:

[0846] All suitable thermal decomposition methods can be used. The exact temperature and type of decomposition (e.g., under vacuum or protective gas) are flexible and can be adapted depending on the material.

[0847] Claim 4: Conversion of carbon into hexagonal graphite

[0848] Patent claim:

[0849] The conversion of carbon atoms into ordered crystalline structures, including but not limited to hexagonal graphite, amorphous carbon forms, or other allotropic modifications, is achieved through high-temperature treatment in the range of 1000°C to 3000°C. The process can be carried out variably using plasma, chemical additives, or under catalyst-free conditions.

[0850] Explanation: This expands the definition to include different forms of carbon and covers additional processes such as the use of plasma.

[0851] Claim 5: High-pressure high-temperature (HPHT) synthesis for converting graphite into diamond

[0852] Patent claim:

[0853] A process for converting hexagonal graphite into synthetic diamond by high-pressure, high-temperature synthesis, comprising:

[0854] 5.1 The transfer of the hexagonal graphite into an HPHT chamber.

[0855] 5.2 The generation of pressures above 5 GPa and temperatures above 1400°C to convert the graphite into synthetic diamond.

[0856] 5.3 The transformation of the carbon atoms into a cubic diamond structure.

[0857] Method for the synthesis of diamonds from carbon or graphite-like materials by high-pressure, high-temperature (HPHT) processes with variable pressures in the range of 2 to 10 GPa and temperatures in the range of 1000°C to 3000°C, depending on the type of starting material and the desired diamond properties. -09-2024-39413001 -Hau ptpost-0089 23-09-2024-39413001-HauP t Pos t— 0089 PCT / DE2024 / 000080

[0858] Conversion can be carried out using metallic, ceramic or amorphous catalysts, although catalyst-free conditions are also applicable.

[0859] Technical description:

[0860] Any suitable HPHT technology can be used. The exact parameters for pressure and temperature are flexible and can be adjusted.

[0861] Patent claim 6: Refining of the synthetic diamond

[0862] Patent claim:

[0863] A process for refining a synthetic diamond by cutting and polishing, comprising:

[0864] 6.1 The shaping of the synthetic diamond by grinding processes to create a specific cut shape.

[0865] 6.2 Polishing the synthetic diamond to increase its brilliance and aesthetic quality.

[0866] Methods for refining synthetic diamonds by mechanical, chemical, optical or hybrid processing methods, including but not limited to cutting, polishing, laser engraving, nanostructuring, plasma etching or other processes that make it possible to achieve a customized shape, improved optical quality or specific functional properties, such as light refraction patterns or holographic effects.

[0867] Patent claims for the proposed method for DNA encapsulation and integration into gemstones with comprehensive protection, refinement and AI monitoring

[0868] Claim 1:

[0869] A process for storing, encapsulating, and integrating DNA into gemstones, comprising the following steps:

[0870] 1.1 Data collection and digitization:

[0871] The information to be stored, such as audio recordings, scientific measurements, or binary data, is digitized and converted into sequences of genetic or molecular bases. This is done by mapping these bases to binary information or other suitable digital formats. This applies to any type of data, such as biological, physical, cultural, or scientific information, including encrypted data, genetic information, works of art, music, visual media, text documents, medical data, personal memories, and scientific records.

[0872] 1.2 Error correction: -09-2024-39413001 - Main Post-0090 23-09-2024-38413001 - Main Post -0090 PCT / DE2024 / 000080

[0873] Established and novel error-correcting coding algorithms are used to ensure that the molecular data remain stable and readable over long periods, regardless of potential environmental influences. These algorithms include, but are not limited to, the Reed-Solomon algorithm, future developments in quantum error correction, or other molecular error correction methods.

[0874] 1.3 Chemical synthesis of DNA:

[0875] Synthetic genetic material or other molecular storage structures are synthesized according to the encoded information. These synthetic structures can be created using biochemical or other suitable molecular synthesis methods. These methods include, but are not limited to, DNA synthesis, RNA synthesis, and technologies for the production of synthetic or hybrid genetic materials.

[0876] 1.4 Encapsulation of DNA in nanocapsules:

[0877] The synthetic genetic material is encapsulated in protective devices to shield it from external influences such as radiation, temperature, humidity, and mechanical stress. These protective devices include, but are not limited to, nanocapsules, nanoparticles, microencapsulation technologies, or other technologies for physical or chemical isolation. The DNA is encapsulated using any environmentally resistant materials, including biocompatible polymers, metals, ceramics, quartz, or future materials. The middle layer can include materials such as sapphire or quartz particles, which provide thermal protection. The outer layer can consist of materials such as graphene or ceramic nanoparticles, which are resistant to radiation and chemical influences and exhibit self-healing properties.

[0878] 1.5 Selection of the gemstone and preparation:

[0879] The gemstone that will encapsulate the DNA nanocapsules is selected based on its physical properties, including hardness, thermal stability, and optical clarity. Gemstones such as sapphire, ruby, emerald, quartz, or diamond can be used, depending on the specific requirements.

[0880] A laser or other suitable material processing technology is used to create microscopic cavities in diamond or other high-strength or crystalline materials. These cavities serve as secure storage locations for DNA or other molecular storage structures. The material processing technology may include laser beams, ion beams, electron beams, or other physical or chemical processing technologies.

[0881] 1.6 Inserting the DNA nanocapsules into the gemstone:

[0882] The molecular structures or data storage structures are introduced into the previously created cavities using precision placement techniques. These techniques include, but are not limited to, micromanipulation, optical tweezers, -09-2024-39413001 -MainPost-0091 23-09-2024-39413001-MainPost i-0091 PCT / DE2024 / 000080

[0883] Nanorobots, automated manipulation systems, or other technologies for the precise positioning of molecules.

[0884] 1.7 Sealing the cavities in the gemstone:

[0885] After the molecular structures are inserted, the cavity is sealed using appropriate technologies. These technologies include, but are not limited to, the use of synthetic diamond material, metals, ceramics, polymers, as well as technologies such as plasma coatings, chemical sealants, or other molecular bonding technologies. Synthetic materials such as sapphire or quartz are used at the microscopic level to ensure a hermetic seal that protects the DNA from external influences in the long term.

[0886] • To prepare a diamond, or as in this case an alternative gemstone, any physical, chemical, or mechanical process is used to create secure storage cavities. These processes include, but are not limited to, femtosecond lasers, nano-engraving, chemical ablation, plasma processing, photonic systems, electrochemical engraving, or methods developed in the future for the precise manipulation of crystal structures. The processed gemstone can be of any type (including, but not limited to, natural or synthetic diamonds, sapphires, quartz, or other crystalline structures).

[0887] 1.8 High-pressure high-temperature synthesis (HPHT):

[0888] The gemstone is subjected to extreme conditions in an HPHT chamber, similar to those of natural gemstone formation. Pressures exceeding 5 gigapascals and temperatures exceeding 1400°C are used to stabilize the gemstone's molecular structure and ensure that the DNA is not damaged during this process.

[0889] 1.9 Engraving an access code:

[0890] A cryptographic access code is invisibly engraved onto the surface of the gemstone using a femtosecond laser. This code is only visible under specific conditions (e.g., UV light) and allows subsequent access to the stored DNA data.

[0891] 1.10 Refinement and protective coating of the gemstone:

[0892] The long-term stability of the molecular structures is ensured by layered systems made of various materials. These layers include, but are not limited to, nanocapsules, ceramic materials, metals, polymers, quartz, sapphire, or high-strength crystalline materials. These layers provide protection against environmental influences such as radiation, mechanical stress, and extreme temperatures.

[0893] 1.11 AI-supported long-term monitoring: -09-2024-39413001 -Hau ptpost-0092 23-09-2024-39413001-HauPtPo§ t-0032 PCT / DE2024 / 000080

[0894] A Cl monitoring system monitors the molecular structure of DNA in real time using Raman spectroscopy. The Cl can provide early warnings of structural anomalies and, if necessary, activate self-healing mechanisms that repair small tears in the nanocapsules.

[0895] 1.12 Data extraction and retrieval:

[0896] The DNA data can be read using non-invasive methods such as Raman spectroscopy, without physically damaging the gemstone. Alternatively, tiny channels can be cut into the gemstone with a femtosecond laser to extract the DNA nanocapsules. The read data can be uploaded to a cloud platform to allow authorized users worldwide access.

[0897] 1.13 Self-healing mechanisms for DNA repair:

[0898] To ensure the long-term stability of the stored DNA, self-healing mechanisms are integrated into the system. These mechanisms include, but are not limited to, nanoparticles or other suitable materials that enable chemical and structural repairs at the molecular level. If the DNA is damaged by external influences such as radiation or mechanical stress, these self-healing nanoparticles can be automatically activated to repair the DNA structure.

[0899] 1.14 Protection of DNA from environmental and mechanical influences:

[0900] The DNA nanocapsules and molecular storage structures are further protected by special layer systems to safeguard them against extreme environmental influences, mechanical stress, and chemical attack. These protective layers include, but are not limited to, ceramic materials, metal-organic frameworks (MOFs), highly stable polymers, and materials with high thermal and chemical resistance, such as graphene.

[0901] 1.15 Multi-layered protection of the gemstone:

[0902] In addition to encapsulation and physical protection of the DNA, several layers are applied to the gemstone itself to enhance protection against external influences. These layers include materials such as boron carbide, aluminum oxide, titanium oxide, or similar high-strength and corrosion-resistant materials that ensure the molecular integrity of the gemstone.

[0903] 1.16 Integration of security systems for data access control:

[0904] Access to the stored DNA data is protected by multiple security systems based on cryptographic access codes and multi-factor authentication. These security systems include biometric data matching, encrypted communication protocols, and other technologies to ensure that only authorized users have access to the stored data.

[0905] 1.17 Control of the long-term stability of the gemstone: -09-2024-39413001 -Hau ptpost-0093 23-09-2024-38413001-HauP tPos -t-0093 PCT / DE2024 / 000080

[0906] The molecular structure of the gemstone, which contains the DNA, is continuously monitored to ensure its stability under extreme conditions. This includes regular tests for molecular wear, performed using AI-supported sensors and spectroscopy technologies to detect and prevent potential damage early on.

[0907] 1.18 Adaptation to future technologies and developments:

[0908] The entire process is designed to be flexibly adapted to future technological developments. This includes the integration of newer materials, methods, and technologies for DNA storage, encapsulation, and monitoring to ensure the system remains scalable in the long term. All possible alternatives for molecular storage and gemstone protection that might be developed in the future are taken into account.

[0909] Patent claims for the integrated process for DNA encapsulation and synthesis in synthetic diamonds

[0910] Claim 1:

[0911] A method for storing and securing information in DNA, encapsulating it in stable nanocapsules and integrating it into synthetic diamonds, comprising the following steps:

[0912] 1.1 Collection and digitization of data sources:

[0913] The collected data may include all types of information, including but not limited to biological, physical, cultural, scientific or other data, such as encrypted data, genetic information, works of art, music, visual media, text documents, medical data, personal memories, scientific records and other digital or analog information formats.

[0914] • The data is converted into a digital format, e.g., a binary representation, where the information is transformed into sequences of 0s and 1s.

[0915] • Error correction methods such as Reed-Solomon algorithms or other data integrity assurance procedures are used to ensure that even in the event of molecular changes or minimal damage, the original data can be recovered over long periods of time.

[0916] 1.2 DNA coding:

[0917] The collected data may include all types of information, including but not limited to biological, physical, cultural, scientific, or other data, such as encrypted data, genetic information, works of art, music, visual media, text documents, medical data, personal memories, scientific records, and other digital or analog information formats. -09-2024-39413001 -Hau ptpost-0094 23-09-2024-39 13001 -H auP t « Q st -0094 PCT / DE2024 / 000080

[0918] • The digitized data are converted into sequences of the DNA base pairs adenine (A), guanine (G), cytosine (C) and thymine (T) by specialized DNA coding algorithms.

[0919] • The encoded DNA sequences are designed redundantly so that errors during later reconstruction can be compensated for by error correction methods.

[0920] 1.3 Synthetic production of DNA:

[0921] The collected data may include all types of information, including but not limited to biological, physical, cultural, scientific or other data, such as encrypted data, genetic information, works of art, music, visual media, text documents, medical data, personal memories, scientific records and other digital or analog information formats.

[0922] 1.4 Encapsulation of DNA in nanocapsules:

[0923] The stabilized storage of the biochemical sequences is achieved by embedding them in encapsulation systems such as nanocapsules, microcapsules or macrocapsules, which may consist of polymeric materials, silicon dioxide, biocompatible plastics, metal-organic frameworks (MOFs), ceramics, metallic nanostructures, or other suitable biocompatible materials.

[0924] • These materials are designed to withstand extreme mechanical, chemical and thermal stresses.

[0925] • Other protection technologies include embedding in self-healing nanomaterials and hybrid ceramic-polymer-based structures reinforced by nanocomposites to ensure the long-term integrity of the DNA even in extreme environments.

[0926] • A middle layer, consisting of thermally and mechanically stable materials such as sapphire or quartz, protects the DNA from the extreme temperatures and pressures during high-pressure high-temperature (HPHT) synthesis.

[0927] 1.5 Integration of the nanocapsules in carbon:

[0928] The DNA nanocapsules are embedded in high-purity carbon, which serves as the starting material for later conversion into synthetic diamonds.

[0929] • The carbon is processed in a controlled environment to remove impurities and ensure that the nanocapsules remain intact and protected.

[0930] 1.6 High-pressure high-temperature synthesis (HPHT):

[0931] The carbon-DNA composite is processed using high-pressure high-temperature synthesis (HPHT) or alternative processes such as chemical vapor deposition (CVD), plasma-catalytic carbon conversion, dynamic compression, isostatic printing technology, or high-energy optical methods.

[0932] • These processes are based on extreme pressure and temperature conditions, which are similar to the natural conditions of diamond formation in the Earth's mantle and can be applied under both static and dynamic conditions.

[0933] 1.7 Engraving an access code:

[0934] A cryptographic access code is invisibly engraved onto the surface of the synthetic diamond using any technology such as laser engraving, chemical etching, or photonic systems. -09-2024-39413001-Main Post Office-0095 23“03”2024- 3413001 “Main Post Office Post Office-0095 PCT / DE2024 / 000080

[0935] 1.8 Plasma and nanocoatings:

[0936] The collected data may include all types of information, including but not limited to biological, physical, cultural, scientific or other data, such as encrypted data, genetic information, works of art, music, visual media, text documents, medical data, personal memories, scientific records and other digital or analog information formats.

[0937] • Self-healing coatings that offer thermal, mechanical and chemical protection can also be used.

[0938] • In addition, hybrid nanocoatings are implemented that combine both organic and inorganic protective materials to absorb radiation, extreme temperatures and mechanical impacts.

[0939] 1.9 AI-supported long-term monitoring:

[0940] The collected data may include all types of information, including but not limited to biological, physical, cultural, scientific or other data, such as encrypted data, genetic information, works of art, music, visual media, text documents, medical data, personal memories, scientific records and other digital or analog information formats.

[0941] The computer monitors the state of the DNA using technologies such as Raman spectroscopy and analyzes in real time whether structural anomalies or possible damage occur.

[0942] Upon detecting damage, the computer can automatically trigger an early warning system and activate self-healing nanoparticles that repair the DNA.

[0943] 1.10 Data access and use:

[0944] The stored DNA data can be retrieved through specialized devices or a cloud platform that allows authorized users to access the data.

[0945] The cryptographic access code enables the secure reading and restoration of the DNA data to its original format.

[0946] Patent description for DNA encapsulation and integration into natural diamonds with predictive AI monitoring and self-healing mechanisms

[0947] Step 1: Encoding the data in DNA

[0948] Claim 1: Method for converting digital information into DNA sequences and preparing them for storage in natural diamonds.

[0949] Technical description: -09-2024-39413001 -Hau ptpost-0096 23-09-2024-39413001 -Hau P t Po st -0096 PCT / DE2024 / 000080

[0950] 1. Digital Data Processing: The data to be stored (e.g., genetic information, scientific findings, or encrypted messages) is converted into DNA sequences. The binary values ​​(0 and 1) are assigned to the four nucleotides of DNA (adenine, guanine, cytosine, thymine). Standardized coding algorithms, such as the Reed-Solomon algorithm, are used to ensure the integrity of the DNA. This algorithm enables error correction, ensuring that even if small sections of DNA are damaged or lost, the data can be fully recovered.

[0951] 2. Longevity of DNA: DNA is encoded and synthesized in such a way that it remains stable for millennia. This is particularly important because natural diamonds are intended to serve as long-term carriers of DNA.

[0952] Step 2: Synthesis and encapsulation of DNA

[0953] Claim 2: Method for the synthetic production of the encoded DNA and its encapsulation in nanocapsules for integration into natural diamonds.

[0954] Technical description:

[0955] 1. DNA Synthesis: DNA is encapsulated in protective nanostructures such as nanocapsules, microcapsules, supramolecular capsules, or polymeric protective systems to shield it from external influences like radiation, mechanical damage, extreme temperatures, and chemical reactions. These capsules consist of biocompatible polymers, silicon dioxide, quartz, metal-organic frameworks (MOEs), graphene, or self-healing hybrid structures. Furthermore, multilayer protective barriers can be used to shield the DNA from ionizing radiation.

[0956] 2. Encapsulation of DNA: To protect the DNA from external influences such as radiation, mechanical damage, and thermal changes, it is enclosed in nanocapsules. These capsules consist of materials such as silicon dioxide or biocompatible polymers, which create a physical barrier around the DNA. Additional protective layers can be added to increase the nanocapsules' resistance to extreme environmental conditions.

[0957] Step 3: Preparation of the natural diamond -09-2024-39413001 -Hau ptpost-0097 23-09-2024- 39413001 -HauP t DS t -0097 PCT / DE2024 / 000080

[0958] Claim 3: Method for the precise machining of a natural diamond to create cavities for the DNA nanocapsules.

[0959] Technical description:

[0960] 1. Diamond processing: o A process for processing natural diamonds by

[0961] Femtosecond lasers or other optical, mechanical, or chemical processing techniques are used to create microscopic cavities. Cavity size and placement: The cavities are designed to securely accommodate the nanocapsules without structurally weakening the diamond.

[0962] Step 4: Embedding the DNA in the natural diamond

[0963] Claim 4: Method for integrating DNA nanocapsules into natural diamonds by precise micromanipulation.

[0964] Technical description:

[0965] 1. Micromanipulation: The DNA nanocapsules are inserted into the previously created cavities of the natural diamond using micromanipulators and optical tweezers. This process is carried out under sterile conditions to prevent contamination.

[0966] 2. Sealing the cavities: After the DNA nanocapsules are placed, the cavities are sealed using a femtosecond laser. This creates a molecular bond between the natural diamond and the sealing layer to ensure a perfect seal.

[0967] Step 5: Protecting DNA through nanotechnology and AI-based monitoring

[0968] Claim 5: Method for long-term monitoring and protection of DNA embedded in natural diamonds using nanotechnology and Cl.

[0969] Technical description:

[0970] 1. Thermal and mechanical protective layers: The process utilizes a combination of AI-supported technologies, machine learning, and neural networks for continuous long-term monitoring and safeguarding of DNA. These technologies monitor the molecular integrity of the DNA in real time and use predictive models for the early detection of structural deviations. In combination with molecular protective layers such as graphene, ceramic particles, supramolecular structures, quantum dot-based sensors, and hybrid materials, AI ensures that the DNA remains stable even under extreme environmental conditions. The system integrates spectral monitoring techniques such as Raman spectroscopy and fluorescence spectroscopy to detect changes at the molecular level in real time.

[0971] 2. AI-based monitoring: This method utilizes a combination of AI-supported technologies, machine learning, and neural networks for continuous long-term monitoring and protection of DNA. These technologies monitor the molecular integrity of the DNA in real time and use predictive models for the early detection of structural deviations. In combination with molecular protective layers such as graphene, ceramic particles, and hybrid materials, AI ensures that the DNA remains stable even under extreme environmental conditions.

[0972] Patent application for AI-supported DNA monitoring, storage, repair and data extraction

[0973] Step 1: Collection, storage and long-term monitoring of DNA data

[0974] 1 ■ Method for storing and long-term monitoring of DNA in any solid storage material: o Technical description: The DNA is embedded in any solid storage medium that exhibits high physical stability and resistance to environmental influences. Examples include precious stones (diamonds, rubies, sapphires), metals (gold, platinum), synthetic materials (high-performance ceramics, carbon compounds, glass fibers, silicates), and polymers. o Extension: The method should encompass all types of storage materials suitable for the long-term storage of DNA, regardless of their chemical or physical nature. This also includes new, as yet undeveloped materials with similar or better properties than the examples mentioned.

[0975] 2. Method for DNA encapsulation in nanostructures: o Technical description: The DNA is enclosed in nanocapsules or nanoparticles to protect it from environmental influences (heat, radiation, mechanical stress). These capsules can be made of materials such as silicon dioxide, synthetic polymers, graphene, or high-performance ceramics. o Extension: The claims should encompass all encapsulation techniques and materials that can be used for DNA stabilization, including future technologies such as self-healing nanoparticles or quantum dots that could be used for stabilizing and monitoring the DNA.

[0976] Step 2: AI-supported monitoring and analysis of DNA

[0977] 1 ■ Method for continuous monitoring of DNA integrity using AI-based sensors: o Technical description: An AI continuously monitors the state of the DNA by using sensors embedded in the storage medium. These sensors utilize technologies such as Raman spectroscopy, fluorescence spectroscopy, infrared spectroscopy, or other optical methods to detect molecular changes. o Extension: The patent covers all sensor and detection systems that can be used to monitor DNA, including future developments in quantum sensors, magnetic spectroscopy, and photonic technologies.

[0978] 2. Methods for pattern recognition through AI-based analysis: o Technical description: The AI ​​analyzes the acquired data and uses machine learning algorithms such as deep neural networks (deep learning), recurrent neural networks (RNNs), and convolutional neural networks (CNNs) to detect molecular damage to DNA. o Extension: The scope should encompass all AI architectures and machine learning methods used for DNA damage detection, including future algorithms and hybrid systems that utilize quantum computing or neural chips.

[0979] 3. Methods for Predictive Analysis of DNA Stability: o Technical Description: The AI ​​uses predictive models based on historical and current molecular data to detect potential DNA damage early and send an automatic notification to monitoring systems. o Extension: The claim should encompass all predictive analysis models and AI methods, regardless of the underlying architecture. This includes predictive maintenance and cognitive modeling algorithms that can predict DNA degradation, including methods that link AI with external data sources (environmental conditions, radiation levels).

[0980] Step 3: AI-assisted DNA repair and self-healing -09-2024-39413001 -Hau ptpost-0100 23- 09-2024- 39413001 -H au P t P □ st - 0100 PCT / DE2024 / 000080

[0981] 1. Method for repairing damaged DNA using AI-supported nanotechnology: o Technical description: The AI ​​detects DNA damage and activates nanoparticles that repair the damaged DNA structure. These nanoparticles consist of intelligent materials such as self-healing polymers, graphene, or ceramic particles. o Extension: The claim covers all technologies for DNA repair, regardless of the nanomaterials used or the AI-supported control methodology. This includes future technologies such as molecular robots capable of repairing DNA at the atomic level or quantum dots that act as molecular markers to control the repair processes.

[0982] 2. Methods for DNA self-healing using nanoparticles: o Technical description: The subject is controlled by nanoparticles that restore chemical bonds in DNA. These particles interact with the DNA at the molecular level and enable a reconfiguration of the damaged structures. o Extension: All types of self-healing materials or nanoparticles that can be used to repair DNA should be covered, regardless of their chemical composition or the physical mechanisms that lead to self-healing (e.g., through catalytic reactions, thermal activation, or photonic interaction).

[0983] Step 4: Adaptation to environmental influences and protective mechanisms

[0984] 1 ■ Method for the thermal protection of DNA by AI-controlled barriers: o Technical description: The AI ​​monitors the temperature of the storage medium and activates thermal barriers when the temperature exceeds threshold values. These barriers consist of materials such as graphene, ceramics, or synthetic polymers. o Extension: The claim encompasses all materials and protective mechanisms that can protect DNA from thermal influences, including future technologies such as temperature-regulating quantum dots, thermal superconductors, or adaptive thermal barriers that respond to environmental changes.

[0985] 2. Methods for protection against radiation and chemical influences: o Technical description: The device activates protective layers when radiation or chemical exposure is detected. These layers consist of dense materials such as ceramics or highly conductive metals that shield against radiation and chemical reactions. o Extension: The claim encompasses all possible protective mechanisms against radiation, chemical, and mechanical influences, regardless of their specific chemical composition or structure. This could also include future technologies, such as adaptive -09-2024-39413001-Main-Post-0101 23-09-2024-3S413001-Main-Post-tPost-0101 PCT / DE2024 / 000080

[0986] Surfaces that dynamically change their chemical structure in order to respond to environmental influences.

[0987] Step 5: Long-term monitoring and data recovery

[0988] 1 • Methods for long-term DNA monitoring using AI-based models: o Technical description: AI creates predictive models to monitor the long-term stability of DNA and continuously updates the models based on data acquired by sensors. o Extension: All predictive models for long-term DNA monitoring, regardless of the AI ​​architecture or algorithms used. This could include technologies that incorporate environmental changes, temporal DNA mutations, and external factors such as cosmic radiation and pressure into the monitoring.

[0989] 2. Methods for non-invasive DNA data extraction: o Technical description: The DNA data is extracted using optical or spectral technologies without physically damaging the storage medium. Examples include Raman spectroscopy or femtosecond lasers. o Extension: The claim should encompass all technologies for non-invasive data extraction, including new and future developments in photonic data extraction, quantum optics, and technologies for manipulating DNA using magnetic or electromagnetic fields.

Claims

1. -09-2,024-39413001 -Hau ptpost-0103 23-09- 024- 39413001-HauP t Pes t-0103 PCT / DE2024 / 000080 Supplement to sheet no. 7 Claim 1: Method for DNA coding and error correction A method for converting digital data into DNA sequences, translating binary data into base pairs (adenine, cytosine, guanine, thymine). Error correction algorithms, such as the Reed-Solomon algorithm, ensure long-term data integrity, even under extreme conditions. Claim 2: Method for the chemical synthesis and stabilization of DNA A method for the chemical synthesis of DNA sequences generated from digital data. This DNA is modified to be resistant to environmental influences such as heat, radiation, and chemical reactions to ensure long-term data storage. Claim 3: Method for encapsulating DNA in nanocapsules A method for encapsulating synthetic DNA in nanocapsules to protect it from physical and chemical influences. These nanocapsules consist of materials such as graphene, silicon dioxide, ceramics, or biocompatible polymers and offer protection against radiation, heat, and mechanical stress. Claim 4: Method for embedding DNA nanocapsules in synthetic diamonds A method for embedding DNA nanocapsules in synthetic diamonds, using femtosecond lasers or other precise laser techniques to create microscopic cavities in the diamonds, which are then sealed to permanently protect the DNA. Claim 5: Method for AI-supported long-term monitoring and repair of DNA A method for the continuous monitoring of DNA integrity in synthetic diamonds using AI-supported sensors that employ technologies such as Raman spectroscopy. The AI ​​detects and predicts potential damage and, if necessary, activates self-healing nanoparticles to repair the DNA.