ZERO-TRACE MATHEMATICAL STATE VECTOR, TRANSFORMER, AND POST-QUANTUM HYBRID COMMUNICATION PROTOCOL IN DATA TRANSMISSION.
The zero-trace communication system addresses vulnerabilities in traditional data transmission by converting data into mathematical state vectors and rendering on GPU VRAM, securing data against memory leaks and quantum threats.
Patent Information
- Application Number
- TR202615162
- Authority / Receiving Office
- TR · TR
- Patent Type
- Applications
- Current Assignee / Owner
- Filing Date
- 2026-09-04
- Publication Date
- 2026-10-21
AI Technical Summary
Existing network security and data transmission architectures are vulnerable to memory leaks, dump attacks, and quantum computer threats, and traditional encryption methods are susceptible to feature analysis and decryption by quantum computers.
A zero-trace communication system that converts data into mathematical state vectors using post-quantum encryption and zero-knowledge proofs, transmitting differential state matrices over a network, and renders data directly on GPU VRAM without storing in persistent memory, ensuring data integrity and security.
Prevents data leaks and quantum decryption, maintaining data confidentiality by eliminating memory traces and resisting forensic analysis, while ensuring secure and efficient data transmission.
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Abstract
Description
TARIFF ZERO-TRACE MATHEMATICAL APPROACH TO DATA TRANSMISSION OVER A NETWORK. STATE VECTOR, TRANSFORMER, AND POST-QUANTUM HYBRID COMMUNICATION PROTOCOL 1. THE TECHNICAL FIELD TO WHICH THE INVENTION RELATES The invention relates to cybersecurity, network communication protocols, and secure data transmission architectures. cryptography, Post-Quantum Encryption (PQC), Zero-Knowledge Proofs (ZKP), and hardware. It relates to the technical fields of temporary memory (RAM / VRAM) management. The invention relates specifically to static data (text, PDF, database) transmitted over a network. raw data of recordings) and dynamic multimedia streams (live video, audio, screen sharing) Instead of being transmitted in packets or encrypted file formats; sender (client) one-way parametric that cannot be resolved by reverse engineering by unauthorized parties Converting to mathematical state matrices (state vectors), quantum resistive. encryption and zero-knowledge proofs are used to seal the data, while on the receiving end, the data is stored on a hard drive or Instantaneous data is stored directly in the graphics card memory (VRAM) without being written to persistent memory areas. The process involves displaying the image and ultimately distributing the memory areas at the hardware level. It relates to the layered reset method and system. 2. STATE OF THE ART AND TECHNICAL PROBLEMS (PRIOR ART) State of the Art: Traditional network security and data transmission architectures (TLS 1.3, AES-256, IPSec, VPN, SRTP relies on encrypting data as it travels along the transmission channel. In these approaches, data is created at the source, enters the network tunnel, and is decoded at the destination. in raw data or encrypted data that can be fully deciphered once the key is obtained. It exists in the form of file packets. 1 24.09.2026 13:40 Specification — 2026 / 015162 file: / / / C: / Users / ASUS / Desktop / HIZLI OKUMA / BiOku / phantom / duzeltilmis / 01_tarifname.html 1 / 6 Existing video conferencing and broadcasting protocols (RTSP, H.264 / H.265, WebRTC) The pixels are compressed in a time series and sent to the receiver as encrypted network packets. The device combines and decompiles packets and stores them in the operating system's RAM buffer. It displays what it says on the screen. Deficiencies and Technical Problems in the State of the Art: 1. Temporary Memory Leaks and RAM Dump Attacks (Memory Artifacts): Traditional When data is decoded on the receiving side in protocols, the operating system's RAM or GPU VRAM It is stored as raw pixel / text data in memory addresses. Memory dump (RAM) Dump attacks, Cold Boot attacks, or insider threat malware. In this way, these memory areas can be read by digital forensics tools, and data can be accessed without authorization. It can be leaked. 2. Quantum Computer Threat (Harvest Now, Decrypt Later): Today, RSA, ECC and standard AES-based encrypted data packets transmitted by cyber attackers It is stored in data centers using network sniffing methods. In the future Quantum computers (Shor and Grover algorithms) target processing power Upon accessing this data, previously stored information will be compromised, and privacy will be completely lost. It will rise. 3. Image and Data Masking Vulnerabilities: Classic data masking or encryption vulnerabilities. These methods are mathematical and statistical because they preserve the overall file structure of the data. It is open to feature analysis (statistical traffic analysis). When a network packet is captured... information about the data's file type, size, frequency, and character distribution. It can be obtained. 3. TECHNICAL SOLUTIONS AND ADVANTAGES PROVIDED BY THE INVENTION The zero-trace communication system described in this invention addresses the technical problems mentioned above. It provides the following solutions: 2 24.09.2026 13:40 Specification — 2026 / 015162 file: / / / C: / Users / ASUS / Desktop / HIZLI OKUMA / BiOku / phantom / duzeltilmis / 01_tarifname.html 2 / 6 Zero-Raw Data Transmission: Data transmitted over a network. The packets do not carry files, text, or raw pixels. The data is processed on the sender's side. Reverse without custom session parameters using the WebAssembly (WASM) engine. a State Vector that cannot be converted back to the original raw data through engineering It is transformed. An unauthorized party that intercepts the network packet cannot obtain the original data. Quantum Level Sealing (PQC + ZKP): State matrix according to NIST standards. Suitable ML-KEM (CRYSTALS-Kyber) key replacement and ML-DSA (CRYSTALS- The transaction is sealed with digital signatures (Dilithium). The accuracy and integrity of the transaction depend on the raw data. It is proven with Zero-Knowledge Proof (ZKP) without opening the content. Hardware Memory Cleaning (Zero-Memory-Fill): On the receiving side, the data is processed by the operating system. RAM and disk volumes are bypassed, and processing is done directly on the GPU VRAM in real-time. (WebGPU). The moment the session ends or the screen changes, the relevant VRAM memory blocks are allocated three times. hardware with progressive data layers (0x00, pseudorandom noise and 0xFF) It is crushed and deleted at a very high level, leaving no digital forensics residue. 4. EXPLANATION OF THE FIGURES Figure 1: General system architecture, components, and data flow diagram of the invention. Figure 2: Client-side mathematical state matrix transformation and temporal decomposition. Flowchart of the Temporal Chunking mechanism. Figure 3: Receiver-side WebGPU memory management and Zero-Memory-Fill memory cleanup. cycle. 5. LIST OF REFERENCES IN THE FIGURES 100: Client Side (Sender System) 101: Raw Data and Media Sources (PDF, Document, Database, Live Video / Audio Stream) 102: Client-Side WebAssembly (WASM) SDK Module 103: Converter and Temporal Vector Chunking Engine 104: Temporary Process Memory (RAM / VRAM) 3 24.09.2026 13:40 Specification — 2026 / 015162 file: / / / C: / Users / ASUS / Desktop / HIZLI OKUMA / BiOku / phantom / duzeltilmis / 01_tarifname.html 3 / 6 105: Post-Quantum (PQC - Kyber / Dilithium) and ZKP Sealing Engine 106: Zero-Memory-Fill Automatic Memory Cleaner Unit 107: Safe State Vector Flowline 200: Insecure Network (Internet / WAN) 201: Mathematical State Matrix and Seal Package Without Raw Data Transferred Over the Network 300: Receiver (Verifier and Viewer System) 301: Receiver Verification and Rendering Module 302: Post-Quantum Seal and ZKP Verifier Unit 303: Instant Rendering Processor (WebGPU / VRAM Engine) 304: Authorized User Screen / Interface 6. DETAILED EXPLANATION OF THE INVENTION The system in question is basically composed of at least one Client Party (100), to which data is transferred. at least one Insecure Communication Network (200) and at least one Receiver that verifies and processes the data The party consists of (300) components. 6.1. State Matrix Transformation and Data Reduction (103) The raw data source (101) located on the client side (100) is a text file, PDF The data can be a document, a database query result, or a live camera / microphone stream. The data is transmitted to the client. When it reaches the software module (102), the converter engine (103) converts the data into byte sequences. reader. The data transformation equation is generally as follows: S(t) = Ψ(Draw(t), Ksession) Here; Draw(t): The raw data at time t, 4 24.09.2026 13:40 Specification — 2026 / 015162 file: / / / C: / Users / ASUS / Desktop / HIZLI OKUMA / BiOku / phantom / duzeltilmis / 01_tarifname.html 4 / 6 Ksession: PQC session key, Ψ: One-way parametric vector transformation operator, S(t): Represents the State Matrix to be transmitted over the network. If the data is live video or screen streaming, the temporal function in the converter engine (103) Temporal chunking is applied. Pixels are processed individually or using classic video codecs. It is not transferred in squares. The mathematical exchange matrix (ΔS) between two consecutive squares. is calculated: ΔS = S(t) − S(t−1) Instead of pixels, only this differential state matrix (201) is transmitted over the network. 6.2. Quantum-Impervious Sealing and ZKP Signature (105) The generated S(t) state matrix shows the three stages of the sealing motor (105). It passes through a cryptographic seal: 1. Post-Quantum Key Encapsulation (ML-KEM / Kyber-1024): Client and receiver among them is a lattice that cannot be solved by quantum computers using Shor's algorithm analysis. Temporary session keys are generated based on this data. 2. Lattice-Based Digital Signature (ML-DSA / Dilithium-5): Source of the state matrix, Identity and data integrity are sealed. 3. Zero-Knowledge Proof (ZKP - zk-SNARK / STARK): The receiver reveals the raw data. to be able to check the mathematical correctness of the state matrix without removing it Verifiable cryptographic proof is included in the package. 6.3. Receiver-Side Real-Time Rendering and Memory Management (303, 106) 24.09.2026 13:40 Specification — 2026 / 015162 file: / / / C: / Users / ASUS / Desktop / HIZLI OKUMA / BiOku / phantom / duzeltilmis / 01_tarifname.html 5 / 6 The packet (201) that reaches the receiving side (300) over the network (200) is firstly PQC and ZKP Packets that fail validation are checked by the validator unit (302). It is instantly destroyed at the level. The verified status matrix is directly displayed on the receiver device's graphical interface. It is sent to the WebGPU-based render processor (303) under the control of the processing unit. The render processor (303) directly renders the incoming mathematical state vector to the screen. converts the instant pixel matrix in the card's memory (VRAM) and displays it on the user screen (304) This process reflects the data. During this process, no copies of the data are transferred to permanent storage units (SSD / HDD). or it is not written to the general RAM areas of the operating system kernel. When the user closes the window, ends the session, or a new image is displayed When the square is reached, the Zero-Memory-Fill cleaner unit (106) is activated. The relevant VRAM Memory blocks are compressed in three stages: Memoryblock ← 0x00 → PRNG_Noise → 0xFF Thanks to this three-stage hardware crushing process, the session on the device is subsequently, a forensic investigation or RAM dump attack would be carried out Even the smallest piece of data cannot be traced in any physical or magnetic way. 7. HOW THE INVENTION IS APPLIED TO INDUSTRY The invention has applications in military and diplomatic high-security communication systems, and banking. and financial sector confidential database queries, copyright-critical live broadcast in platforms, medical data (HIPAA) transfers and internal leakage prevention (DLP) It can be directly implemented in their software. WebAssembly (WASM) and WebGPU Because it was developed according to standards, modern web browsers and desktop operating systems additional hardware modification in systems, smart mobile devices and embedded hardware It can be operated with high efficiency without requiring any additional resources. 6 24.09.2026 13:40 Specification — 2026 / 015162 file: / / / C: / Users / ASUS / Desktop / HIZLI OKUMA / BiOku / phantom / duzeltilmis / 01_tarifname.html 6 / 6
Claims
REQUESTS 1. Ensuring data confidentiality and integrity during data transmission over a network, zero-trace prevents the raw material from existing in transmission lines and temporary memories. Trace is a communication method; its characteristic is: a. Data from at least one raw data source (101) located on a client device (100), from the type of input and the form of representation (text, document, image, sound, frequency or color) (104) unauthorized third parties in client-side temporary process memory (encoding) independently of the client-side temporary process memory. mathematical state matrices (State) that cannot be reverted to the original data by the parties Transformation step (103) of Vectors, b. The aforementioned state matrices are mathematically derived without revealing the raw content of the data. at least one Zero-Knowledge Proof that demonstrates its accuracy and completeness Step (105) of sealing with Proof - ZKP, c. The generated state matrix and seal components form an insecure communication network. (107) step of transferring (300) to the recipient side via (200, d. Cryptographic verification of the transmitted state matrix (302) on the receiving side (300) and data is written directly to the recipient's side without being written to hard disk or permanent memory areas. The step of instant processing and display in the graphics memory (VRAM) (303), e. The moment the transaction or viewing is terminated, on the client (100) and receiver (300) sides temporary memory areas (104, 303) are multi-layered at the hardware and software levels. Zero-Memory-Fill (106) step by crushing with random values, It includes. 7 24.09.2026 13:41 Requests — 2026 / 015162 file: / / / C: / Users / ASUS / Desktop / HIZLI OKUMA / BiOku / phantom / duzeltilmis / 02_istemler.html 1 / 3 2. A method that conforms to Claim 1, and its feature is that the aforementioned raw data source (101) In the case of live video, audio, or screen sharing streaming; the temporal aspect of uninterrupted streaming. dividing the data into parts (Temporal Chunking) and extracting the raw squared data from each time period. Instead of pixels or sound packets, it represents the mathematical difference between this frame and the previous one. Converting to Delta State Vectors and transferring to the network (200) It includes the steps.
3. A method that conforms to Request 2, and its feature is that the square reaches the receiving side (300). exchange matrices, the receiving device's graphics processing unit (GPU) and graphics memory (VRAM) directly on the screen via WebGPU and WebAssembly (WASM) engines. instantaneous generation (303) and display of each generated square data It involves steps to instantly overwrite and erase the data from VRAM after the period ends.
4. It is a method that conforms to Request 1, and its feature is; between client (100) and receiver (300). Session handshake and key exchange are performed using a grid-based Post- ML-KEM (CRYSTALS-Kyber) compliant with Quantum Cryptography (PQC) standards. encryption algorithms that are resistant to the computational power of quantum computers It includes the step.
5. A method that conforms to claim 1, characterized by its ability to transmit mathematical data over a network. State matrices and ZKP proofs, quantum resistive ML-DSA (CRYSTALS-Dilithium) The data source and its integrity are quantum-certified by being sealed with digital signature standards. This includes the verification step at the level.
6. This is a method that conforms to Claim 1, and its characteristic feature is that it uses the mathematics of Zero-Knowledge Proof (ZKP). Quantum computers versus lattice-based probabilistic matrix analysis the step of making it quantum-proof by hybridizing it with complexity functions It includes. 8 24.09.2026 13:41 Requests — 2026 / 015162 file: / / / C: / Users / ASUS / Desktop / HIZLI OKUMA / BiOku / phantom / duzeltilmis / 02_istemler.html 2 / 3 7. This is a method that complies with Claim 1, and its characteristic is that when the process is complete or the connection is made... When interrupted, all address blocks in RAM and VRAM where data is processed are respectively 0x00 represents pseudo-random noise (PRNG noise) and 0xFF represents hardware-related issues. memory dump (RAM dump) and digital forensics analysis by being overwritten at the level of obfuscation. This includes the step of providing residual protection against the enemy.
8. A method that conforms to Claim 1, and its feature is that the conversion unit of the system (103), data can be processed using color spaces (RGB / CMYK), frequency bands, alphabetical / numerical conversions, or raw, including structures that mask or encrypt through visual symbols This involves the step of reducing the data to a one-way parametric state matrix.
9. Configured to execute method steps 1 through 8; at least one The processor must include at least one graphics processing unit (GPU), at least one temporary memory unit (RAM / VRAM), and Zero-Trace Status containing client and receiver software modules (102, 301) Vector Communication System. 9 24.09.2026 13:41 Requests — 2026 / 015162 file: / / / C: / Users / ASUS / Desktop / HIZLI OKUMA / BiOku / phantom / duzeltilmis / 02_istemler.html 3 / 3
