QUANTUM SECURE HOLOGRAPHIC DATA TRANSMISSION SYSTEM

Abstract

This invention relates to a system (1) that enables the transmission of holographic data in 6G and later communication networks with low latency and security. The invention segments the data, dynamically compresses it according to communication conditions, encrypts it with QKD-based secure keys, and verifies data integrity with Merkle root. In case of a problem in the QKD link, it switches to a post-quantum secure alternative key mechanism to ensure the continuity of data transmission.

Description

1 TARIFF QUANTUM SECURE HOLOGRAPHIC DATA TRANSMISSION SYSTEM Technical Area This invention enables low-latency, secure, and reliable transmission of holographic data across communication networks. It relates to a system that enables the transmission of information in a verified manner. The invention Specifically, quantum key distribution in holographic data transmission, adaptive data the combined use of compression and distributed integrity verification techniques It is related. 10 Previous Technique In the current state of the technology, holographic communication systems can handle high volumes. Data compression and classical 15 for real-time transmission of light field data. Encryption methods are used. In these systems, data Security, data integrity, and transmission performance are often independent of each other. This is addressed in the following way. Holographic data has a high data volume, Especially in real-time applications, bandwidth requirements and transmission... This increases the delay. Furthermore, in solutions using the known state of the technique, the data is 20. Its integrity depends on central verification mechanisms, central error This can lead to the formation of points. Therefore, holographic data A new system is needed that allows compression according to transmission conditions. It is heard. United States Regulation US20220413433A1, in the known state of the art. The patent document describes the capture, processing, and compression of holographic data. transmission and conversion into a three-dimensional holographic display at the receiving end Solutions for this purpose are explained. However, the patent document mentions holographic 30 secure segments of data using QKD (quantum key distribution) keys 2 Encryption in this way, the compression ratio is dynamically adjusted according to QKD conditions. from modification and verification of data integrity with Merkle root It is not mentioned. Brief Description of the Invention 5 The invention aims to transmit holographic data securely and with low latency. The goal is to provide a system that enables transmission. Another aim of the invention is to convert holographic data into data packets of specific dimensions. separation and protection of each data packet with a separate security key to provide. Another aim of the invention is to create holographic switches depending on the quantum switch production speed. The goal is to enable dynamic modification of the data compression level. 15 Detailed Description of the Invention The "Quantum Secure" approach was implemented to achieve the purpose of this invention. The "Holographic Data Transmission System" is shown in the attached figure; this figure is 20. Figure 1. Schematic view of a system that is the subject of the invention. The parts shown in the figure are individually numbered, and these numbers correspond to... The corresponding answers are given below. 25 1. System 2. Holographic data detection module 3. Holographic data processing module 4. Database 30 5. Server 3 An invention that enables quantum secure and low-latency holographic data transmission. subject system (1); - detection of holographic or light field data, from detected data Obtaining information on depth, distance, phase, brightness, and color. 5 at least one holographic data detection module configured to provide (2), - according to specific data dimensions of holographic or light field data segmentation, segmented data, data header and data 10 to enable the creation of holographic data packets containing the payload at least one holographic data processing module configured (3), - information regarding holographic data packets, key distribution channel status information, data transmission speed, latency, data loss, and holographic image at least one configured to enable the storage of quality information database (4), 15 - dynamically according to the communication conditions of holographic data packets compression, encryption and integrity verification Hash (sum value) of encrypted holographic data packets and Merkle by generating root values ​​using a post-quantum secure method signing, to protect against errors that may occur in secure key distribution 20 switching to an alternative key mechanism, ensuring the continuity of data flow ensuring user or device identities and access permissions are provided. verification of the received holographic data packets. Holographic or light-based imaging through decoding and decompression of codes. reconstruction of the area content, during holographic data transmission 25 work on communication channel and quantum key distribution channel Data compression and secure key monitoring of conditions in real time. dynamic management, data buffering and secure data transmission methods at least one server configured to enable the change to (5) It includes. 30 4 The holographic data sensing module (2) in the system (1) which is the subject of the invention, is a to enable the acquisition of holographic or light field data related to the scene It is structured in such a way. The holographic data sensing module (2) relates to the scene. The camera collects x, y, u, v coordinates, depth, distance, phase, brightness, and color information. 5 obtained via LiDAR (light detection and ranging) or depth sensor. It is structured to do so. Holographic data detection module (2), camera or image data obtained by the sensor with LiDAR (light detection and Distance and depth obtained from distance measuring (or depth) sensors. It is structured to enable the combined evaluation of this information. Holographic data sensing module (2) detects the spatial and angular components of the light field 10 to create and transmit the obtained distance and depth information to the server (5) It is structured accordingly. The holographic data processing module (3) in the system (1) which is the subject of the invention, holographic processing of light field data received from the data sensing module (2) and certain 15 to enable segmentation according to data dimensions It is structured. Holographic data processing module (3), high-dimensional by separating holographic or light field data into data segments of specific dimensions to create a holographic data packet (HVP) for each segment It is structured. Holographic data processing module (3), created holographic 20 to ensure that data packets are processed in accordance with data transmission conditions It is structured. Holographic data processing module (3), holographic data Edge AI processes data packets in a way that complies with data transmission conditions. It is configured to use the method. Holographic data processing module (3) converted the said data into holographic data packets (HVP) of size 4 KB. It is structured to separate. The holographic data processing module (3) is related to 64 bytes containing control and management information for the holographic data segment a 4032-byte data header containing a holographic data segment of size It is configured to contain a payload of a certain size. Holographic data processing module (3), timestamp for each holographic data segment 30 (timestamp), sequence number, segment ID, compression ratio and secure key ID It is configured to receive control and management information in this form. Holographic data processing module (3) processes the received information into the data of the relevant HVP. to save to the header and thus the relevant holographic data after transmission. segment order, compression ratio used, and associated security key 5 It is structured to determine the holographic data processing module (3). Timestamp and sequence number for the holographic data segment. (sequence number), segment ID, compression ratio control management data in the form of ratio) and secure key ID to apply predefined compression parameters and processed holographic 10 It is configured to transmit data packets to the server (5). The database (4) in the system in question (1) contains holographic data packets related data sequence number, segment ID, timestamp, compression rate, secure key ID information, secure key distribution channel 15 status, QKD key generation speed, BER data transmission speed, channel capacity, latency, data loss, channel availability, HVP loss rate, blockchain (Blockchain) recording latency, failover status, and holographic image quality information such as resolution, image distortion level, and PSNR. It is configured for storage. 20 The server (5) in the system (1) which is the subject of the invention, any remote communication using the protocol with the holographic data processing module (3) and database (4) It is configured to communicate. The server (5) is configured to establish this communication. data processing, data compression, encryption, key management by communicating through, 25 coordination of data integrity verification and secure data transmission processes It is configured to provide the following: The server (5), database (4) making new data entries into it, data recorded in the database (4) deletion, modification or updating and registered within the database (4) It is structured to manage the database (4) by receiving the data. 30 Server (5) receives segmented data from holographic data processing module (3) 6 holographic data packets (HVP) based on data header and payload information. to evaluate, packet sequence number, segment ID, timestamp, To determine information such as compression ratio and key ID, and the aforementioned The information is structured to be recorded on the database (4). Server (5), transmission of holographic data packets over the communication channel 5 during this process, the capacity of the communication channel, data transmission speed, latency, and data loss, key factors include generation speed, BER (bit error rate), channel availability, and holographic. It is structured to evaluate image quality metrics together. Server (5), data transmission speed, communication channel capacity, latency, data loss, QKD combines key production speed, BER, and holographic image quality information into 10. by evaluating the compression that will be applied to holographic data packets. It is configured to dynamically determine the rate. Server (5), QKD enables secure encryption of holographic data packets. using the (quantum key distribution) method to distribute secure encryption keys It is configured to enable the creation of the server (5), QKD operation 15 communication parties using the BB84 (Bennett-Brassard 1984) protocol during this process to enable the creation of shared secure keys between them is configured. Server (5) securely receives the generated keys. It is configured to make it available for use. Server (5), Secure keys generated using the QKD method are stored in FIFO (First-In First-Out) format. to keep in a key pool that operates on the first-come-low principle. It is being configured. Server (5) is available in the key pool. tracking the keys, assigning a suitable secure key to each holographic data packet. It is configured to allocate. The server (5) is configured to allocate the allocated key. The key ID information related to the holographic data packet is in data 25. It is structured to be associated with the title. Server (5), one-segment- Each holographic data point follows a one-key approach. assigning a separate secure key to the segment and a holographic data segment the secure key used for another holographic data segment It is configured to prevent reuse in encryption. 30 Server (5) will ensure the usage time of secure keys is no more than one hundred milliseconds. 7 to limit it in this way and from the relevant secure key pool after use It is configured to extract. The server (5), using the secure key, Encryption of holographic data packets using AES-256-GCM encryption method It is configured to provide. The server (5), when the encryption process is completed The relationship between holographic data packets and the secure key used is called key ID 5. It is configured to record data via (identity key). Server (5), the identity of the user or device that wants to access holographic data packets Through the Decentralized Identifier (DID) mechanism It is configured to verify. The server (5) with the verified DID information. Access to holographic data packets or holographic data segments 10 Smart contracts and access control lists (ACLs) for associating permissions. The server (5) is configured to use Access Control List. The agreement specifies which holographic data packets the verified user or device has access to and to determine which holographic data segments it can access It is being configured. Server (5), if DID verification is successful, 15 a temporary session ID or session token is given to the user or device (token) can be allocated and holographic data packets within the relevant session. It is configured to enable processing. The server (5), throughout the session Instead of repeatedly verifying the DID information of the user or device, The generated temporary session token can be used and is in the HVP data header 20 The found key ID and segment ID information can be associated with the relevant session. It is configured. The server (5) displays the working status of the QKD channel BER (bit error rate), secure key generation speed, channel availability, and channel connectivity to monitor the status in real time through parameters such as It is being configured. The server (5) sets the BER value for the QKD channel to 25. It is configured to be evaluated at millisecond monitoring intervals. Server (5), exceeding the previously defined BER threshold value, secure key the production speed falling below the level required by the holographic data stream, Connection failure or insufficient security switches on the QKD channel. It is configured to detect the arrival situations. Server (5), QKD 30 If a fault or switch insufficiency is detected in the channel, failover (malfunction) 8 It is configured to activate the transition mechanism in case of emergency. The server (5) sets the QBER threshold value for the QKD channel, the QKD used. The error rate allowed by the protocol for secure key generation is quantum channel loss, key production speed, channel stability and predefined safety It can be determined based on at least one of the margins; the threshold value in question is 5 If this is exceeded, QKD-based key usage will be stopped, leading to post-quantum technology. to trigger the transition to a cryptography-based backup key mechanism It is being configured. The server's QBER threshold is between 8% and 11%. It is configured to be determined within the range. Server (5), failure In this case, CRYSTALS-10 from the QKD-based key distribution mechanism Kyber-based (post-quantum secure key generation method) mechanism It is configured to make the transition. The server (5) is available during the transition. In order to protect the holographic data stream, a predictive buffer is used. the use of holographic data packets held within a buffer and new 15 holographic data packets secured with CRYSTALS-Kyber based keys It is configured to enable encryption. The server (5) is holographic To ensure data is retained within a predictive data buffer for twenty milliseconds. It is configured accordingly. The server (5) is configured to re-suit the QKD channel conditions. re-enable QKD-based secure key management if it reaches the required level. It is configured to insert. The server (5) is configured to insert 20 holographic data packets. to ensure the communication channel is compressed in a manner appropriate to its current state QKD-Aware Adaptive Compression (quantum key distribution) It is configured to implement the (conscious adaptive compression) method. Server (5), data transmission speed, communication channel capacity, latency, data loss, QKD provides information on key production speed, BER, and holographic image quality together in 25. by evaluating the compression ratio to be applied to holographic data packets It is configured to determine dynamically. Server (5), QKD key If the production speed is high, a lower compression ratio can be chosen. preserving holographic image quality, reducing QKD key production speed. In this case, by choosing a higher compression ratio, the data transmission delay can be reduced to 30. It is configured to prevent blocking. Server (5), QKD key 9 The compression ratio is determined based on predetermined threshold values ​​depending on the production speed. It is configured to change via the server (5), QKD key. If the production speed is above 10 Mbps (10 megabits per second), the ratio is 1:2.5. If it's between 1 Mbps and 10 Mbps, the ratio is 1:4; if it's below 5 Mbps... In that case, apply one of the compression ratios of 1:8 or 1:16. It is configured. The server (5) is converter-based during the compression process. artificial intelligence model, attention mechanism and quantization (numerical data) to enable the use of techniques (to reduce sensitivity) is configured. The server (5) contains encrypted holographic data packets. To ensure its integrity is verifiable, SHA-3 (Secure Hash 10) is used. algorithm 3) method is used for each holographic data packet It is configured to generate a cryptographic hash value. Server (5) can display a slide window (sliding window) within a specific time interval. by combining multiple hash values ​​generated within the window To create a Merkle Tree and set the Merkle Root value to 15 It is configured to calculate. The server (5) creates the Merkle root the value of CRYSTALS-Dilithium (post-quantum secure digital signature algorithm) to enable signing using a digital signature method based on The server (5) is configured. The generated signed Merkle root value is DLT (Distributed ledger technology) or Permissioned Blockchain 20 It is configured to save on. The server (5) is signed Merkle Targeted record latency for writing the root value to the permissioned blockchain. It is configured to determine the time to be less than two milliseconds. Server (5) records holographic data packets within a specific time interval. If the records regarding the integrity are subsequently altered, the aforementioned 25 It is configured to ensure that the change is detectable. Server (5) to ensure the integrity of the transmitted holographic data packets. It is configured in such a way. The server (5) transmits the holographic data packet during the transmission. It is configured to determine whether it has been changed or not. Server (5), During the verification process, the HVP's sequence number, segment ID, and time are 30. Matching and verifying the stamp information with the relevant record in the Merkle structure. If the result is deemed invalid, the relevant HVP will be resent. It is configured to ensure that it is marked. The server (5) ensures integrity. verified holographic data packets based on QKD or CRYSTALS-Kyber decryption using secure keys and then 5 to ensure that it undergoes decompression (data opening) It is configured. Server (5), QKD key generation speed, BER, data transmission speed, latency, data loss, compression ratio, HVP loss rate, blockchain recording latency, failover status, and holographic image quality metrics to monitor and record the obtained performance information in the database (4) It is being configured. The server (5) detects 10 problems in the monitored parameters. By comparing the changes to a predetermined threshold value, the compression ratio is determined. changing, modifying the secure key management method or data to generate control signals to initiate the buffering process is configured. The server (5) detects what happens in the monitored parameters. Depending on the changes, the compression ratio can be adjusted to QKD or 15. Selection of CRYSTALS-Kyber based key management mechanism, data It is configured to initiate the buffering process. 25 11 Industrial Application of the Invention Proper division, compression, and secure storage of holographic data. invention that enables encryption and verification of integrity during transmission The subject system (1) is used in 6G communication networks, holographic communication systems, It can be implemented in remote communication applications and edge infrastructures. 5 The invention takes into account the communication conditions and the secure key status of the data. It can change compression and key usage, causing problems in key distribution. If this occurs, the system switches to an alternative secure key mechanism to transmit data. This ensures the continued transmission of holographic data. Thus, the secure transmission of holographic data is maintained. It is possible to transmit the data with verified integrity and low latency. 10 Based on these fundamental characteristics, the subject of the invention is "Quantum Secure". Different applications and regulations on the Holographic Data Transmission System (1)” It is possible to develop it further, and the invention is not limited to the examples described here. and essentially as stated in the requests.

Claims

12 REQUESTS 1. Enabling quantum secure and low-latency holographic data transmission; - Detection of holographic or light field data, depth, distance, phase, structured to enable the acquisition of brightness and color information at least one holographic data sensing module (2), 5 - according to specific data dimensions of holographic or light field data segmentation, segmented data with data header and data to enable the creation of holographic data packets containing the payload at least one holographic data processing module configured (3), - Information regarding holographic data packets, secure key distribution 10 channel status information, data transmission speed, latency, data loss, and to enable the storage of holographic image quality information at least one database structured (4) and - dynamically according to the communication conditions of holographic data packets 15 for compression, encryption and integrity verification Hash (sum value) of encrypted holographic data packets and Merkle by generating root values ​​using a post-quantum secure method to ensure signing and protect against potential errors in secure key distribution. switching to an alternative key mechanism, ensuring the continuity of data flow ensuring access permissions with user or device IDs 20 verification of the received holographic data packets. Holographic or light-based imaging through decoding and decompression of codes. reconstruction of the field content during holographic data transmission work on communication channel and quantum key distribution channel Data compression, secure key 25 by monitoring conditions in real time. dynamic management, data buffering and secure data transmission methods at least one server configured to enable the change to (5) a system characterized by (1). 13 2. Obtaining holographic or light field data relating to a scene, scene-related x, y, u, v coordinates, depth, distance, phase, brightness, and color information is obtained via camera, depth sensor or Lidar, combined evaluation of the obtained distance and depth information 5 with holographic data sensing module (2) configured to provide A system like the one in Claim 1, characterized (1).

3. To construct the spatial and angular components of the light field and the resulting configured to transmit distance and depth information to the server (5) 10 in 1 or 2 characterized by holographic data sensing module (2) such a system (1).

4. Light field data received from the holographic data sensing module (2) processing and segmenting data according to specific data dimensions, high 15-dimensional holographic or light field data, data in specific dimensions by dividing it into segments and creating a holographic data packet for each segment. (HVP) creation and data transmission conditions of the created HVPs holographic data processing module to ensure proper processing. (3) like any of the above-mentioned claims characterized by system (1). 20 5. Processing holographic data packets in accordance with data transmission conditions. Using the Edge AI method, for each holographic data segment... timestamp, sequence number, segment ID, compression ratio, and secure. 25 to receive control and management information in the form of key identification characterized by the structured holographic data processing module (3) a system like any of the above requests (1).

6. Timestamp, sequence number, and segment for the holographic data segment. Identity control in the form of compression ratio and secure key ID and 30 to record the management information in the data header of the relevant HVP and thus 14 sequencing of the relevant holographic data segment after transmission, used to enable the determination of the compression ratio and the corresponding security key. characterized by the holographic data processing module (3) structured on a system like any of the above-mentioned requests (1).

7. Separate the acquired data into 4 KB holographic data packets (HVP). control and management information regarding the relevant holographic data segment holographic data segment containing a 64-byte data header to contain a payload of 4032 bytes 10 characterized by the structured holographic data processing module (3) a system like any of the above requests (1).

8. Timestamp, sequence number, and segment for the holographic data segment. identity compression ratio and secure key ID data in advance Applying the specified compression parameters and processing the holographic data 15 Holographic data processing configured to transmit packets to the server (5) in any of the above requests characterized by module (3) such a system (1).

9. To be in communication with Server (5) and to be managed by Server (5) 20 The above is characterized by the database structured as (4) a system like any of the requests (1).

10. Data sequence number, segment ID, for holographic data packets, timestamp, compression ratio, secure key ID information, 25 status of secure key distribution channel, QKD key production speed, BER measures data transmission speed, channel capacity, latency, and data loss. channel availability, HVP loss rate, blockchain record delay, failover status and holographic image quality 30 to store related resolution, image distortion level and PSNR information The above is characterized by the database structured as (4) a system like any of the requests (1).

11. Holographic data processing using any remote communication protocol. 5 configured to communicate with module (3) and database (4) any of the above requests characterized by the server (5) a system like one of them (1).

12. Data processing within the system by communicating through the established communication channels. data compression, encryption, key management, data integrity verification and 10 to ensure the coordination of secure data transmission processes from the above requests characterized by the configured server (5) a system like any other (1).

13. Segmented holographic 15 received from holographic data processing module (3) data packets (HVP) based on data header and payload information. Evaluate, package sequence number, segment ID, time. Identifying information such as the logon, compression ratio, and key ID. and to record the said information on the database (4) 20 of the above requests characterized by the configured server (5) a system like any other (1).

14. Transmission of holographic data packets over communication channels. during which communication channel capacity, data transmission speed, latency, data loss, QKD key production speed, BER channel availability and holographic 25 evaluating image quality metrics together, data transmission speed, communication channel capacity, latency, data loss, QKD key generation by evaluating speed, BER (Body Speed), and holographic image quality information together. The compression ratio to be applied to holographic data packets is dynamically determined. 30 characterized by the server (5) configured to determine a system like any of the above requests (1). 16 15. Ensuring secure encryption of holographic data packets. using the QKD method to obtain secure encryption keys to ensure its creation, during the QKD process Bennett-Brassard 1984 using the protocol, shared secure keys between the communication parties 5 the creation and secure retrieval of the generated keys with the server (5) configured to make it available as in any of the above characterized claims system (1).

16. Secure keys generated using the QKD method are based on the FIFO principle. keeping in a working key pool, located in the key pool Tracking available keys, suitable for each holographic data packet. assigning a secure key and the key ID associated with the assigned key 15 to associate the information with the data header of the relevant holographic data packet from the above requests characterized by the configured server (5) a system like any other (1).

17. Each holographic data point in line with the single segment single key approach. assigning a separate secure key to the segment and a holographic data 20 The secure key used for the segment is another holographic data to ensure that the segment is not reused in encryption from the above requests characterized by the configured server (5) a system like any other (1).

18. The usage time of secure keys should also be a maximum of one hundred milliseconds. to limit it and the relevant safe key after use Characterized by the server (5) configured to remove it from the pool a system like any of the above-mentioned requests (1). 17 19. Holographic data using its associated secure key. Ensuring that packets are encrypted using the AES-256-GCM method, encryption secure key used with holographic data packets after processing is complete configured to record the relationship between them via key ID Any of the above requests characterized by the server (5) a system like one of them (1).

20. Identity of the user or device attempting to access holographic data packets. Verify via a decentralized identity mechanism, verified DID with information into holographic data packets or holographic data segments 10 smart contracts and access to associate relevant access permissions using a checklist and smart contract, verified user or which holographic data packets and which holographic data the server (5) configured to determine that it can access its segments a 15 as in any of the above characterized claims system (1).

21. If DID verification is successful, a temporary ID will be sent to the user or device. a session ID or session token can be assigned to holographic data to ensure that the packets are processed within the scope of the relevant session, 20 throughout the session Instead of repeatedly verifying the DID information of the user or device, The generated temporary session token can be used and is included in the HVP data header. The found key ID and segment ID information is associated with the relevant session. characterized by the server (5) configured to be associated with a system like any of the above requests (1). 25 22. QKD channel's operational status BER secure key generation rate, channel parameters such as availability and channel connection status to watch in real time and BER related to the QKD channel. 30 to evaluate its value at one-millisecond monitoring intervals 18 from the above requests characterized by the configured server (5) a system like any other (1).

23. Exceeding the defined BER threshold value reduces the secure key generation speed. If the holographic data stream falls below the required level, QKD 5 channel connection failure or inadequate security switches to detect arrival conditions and errors or switches in the QKD channel Activating the failover mechanism if a deficiency is detected. The above is characterized by the server (5) which is configured for the above. a system like any of the requests (1). 10 24. QKD-based key distribution mechanism from CRYSTALS- Switching to a Kyber-based mechanism involves the existing system during the transition. In order to protect the holographic data stream, within a predictive buffer. the use of stored holographic data packets and new holographic data 15 packets with CRYSTALS-Kyber based secure keys Characterized by the server (5) configured to enable encryption. a system like any of the above-mentioned requests (1).

25. To be able to set the BER threshold value as twelve percent and the BER threshold value is 20 QKD channel features, communication conditions and holographic data to set the value differently depending on the characteristics of the flow The above is characterized by the server (5) which is configured for the above. a system like any of the requests (1).

26. Holographic data of approximately twenty milliseconds within the predictive buffer. to maintain flow and restore QKD channel conditions to suitability If it reaches that level, secure key management will be QKD-based again. configured to route to the primary key distribution mechanism Any of the above requests characterized by the server (5) 30 a system like one of them (1). 19 27. Current status of the communication channel for holographic data packets. QKD-Aware Adaptive ensures proper compression. Using the compression algorithm and improving data transmission speed and communication. channel capacity, latency, data loss, QKD key generation speed, BER, and 5 By evaluating holographic image quality information together, holographic Dynamically determining the compression ratio to be applied to data packets. The above is characterized by the server (5) which is configured for the above. a system like any of the requests (1).

28. Lower compression ratio when QKD key production speed is high. By selecting the ratio, holographic image quality is preserved, QKD key If the production speed decreases, a higher compression ratio can be selected. to ensure data transmission delay is limited and QKD switch Depending on the production speed, the compression ratio is set to a predetermined threshold of 15. server configured to change over values ​​(5) as in any of the above characterized claims system (1).

29. If the QKD switch generation speed is above 10 Mbps, then 1:2, 5 Mbps 20 If the speed is between 1 and 10 Mbps, the ratio is 1:4; if it is below 5 Mbps, the ratio is... To enable the application of a compression ratio of 1:8 or 1:

16. from the above requests characterized by the configured server (5) a system like any other (1).

30. During the compression process, the converter-based artificial intelligence model pays attention. mechanisms and techniques for reducing the sensitivity of digital data to enable its use and depth while reducing data size critical in terms of reconstructing the holographic image, such as the phase. 30 structured to ensure that information is protected as much as possible. any of the above requests characterized by the server (5) a system like one of them (1).

31. Making the integrity of encrypted holographic data packets verifiable. Each holographic data point was retrieved using the SHA-3 method. To enable the generation of the cryptographic hash value for the packet. The above is characterized by the server (5) which is configured for the above. a system like any of the requests (1).

32. Within a specific time interval or within a sliding time window 10 Merkle Tree combines multiple generated hash values configured to generate and calculate the Merkle Root value any of the above requests characterized by the server (5) a system like one of them (1).

33. Generate the signed Merkle root value using DLT or Permissioned Recording on the blockchain involves specific recorded holographic data packets. records relating to integrity over a time interval later If it is changed, the change must be detectable. 20 characterized by the server (5) configured to provide a system like any of the above requests (1).

34. Verification of the integrity of transmitted holographic data packets. to provide verification for received holographic data packets. If the result is valid, the holographic data packet will be transmitted 25 Server configured to determine whether it has been changed (5) as in any of the above claims characterized by system (1).

35. During the verification process, the HVP's sequence number, segment ID, and 30 Matching timestamp information with the relevant record in the Merkle structure 21 and if the verification result is invalid, the relevant HVP will be re-issued. ensuring that it is marked for transmission, verified holographic integrity. The data packets are secured using QKD or CRYSTALS-Kyber-based methods. decrypting the files using keys and then opening the data Server (5) configured to enable the processing of 5 as in any of the above characterized claims system (1).

36. QKD key generation speed, BER, data transmission speed, latency, data loss, compression ratio, HVP loss rate, blockchain record latency, failover 10 to monitor the status and holographic image quality metrics and the obtained configured to record performance information in the database (4) any of the above requests characterized by the server (5) a system like one of them (1).

37. Changes occurring in the monitored parameters within the defined threshold. By comparing the values, changing the compression ratio is safe. Changing the key management method or data buffering to generate control signals to initiate the process 20 of the above requests characterized by the configured server (5) a system like any other (1).

38. Compression based on changes in the monitored parameters. changing the ratio, QKD or CRYSTALS-Kyber based key selection of the management mechanism, data buffering process 25 the launch and QKD-based system once channel conditions return to normal. to ensure a return to the key distribution mechanism from the above requests characterized by the configured server (5) a system like any other (1).

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