Text Language Protocol for Device Interoperability
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Solution Overview
Problem
Current technologies face inefficiencies in achieving interoperability across operating systems and languages, require extensive coding for security, lead to high development costs and time, and struggle with password complexity and local file security, especially in preventing intellectual property misappropriation.
Innovation Solution
A method using text language elements to simplify coding, a dynamic password cipher for secure password generation, and a local file security system that checks CPUID and virtual machine presence to ensure secure access.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Adaptability or versatility
If code is written from scratch to enable device interoperability with operating systems and cloud services, then interoperability is achieved, but development time and cost increase significantly
Solution Approach 1:
The patent implements a universal text language protocol that enables devices to communicate across different operating systems and cloud services without requiring separate coding for each platform. The protocol serves multiple functions including device communication, data transmission, and cloud integration through a single standardized interface, eliminating the need to write code from scratch for each interoperability scenario.
Solution Approach 2:
The text language protocol acts as an intermediary layer between devices and operating systems/cloud services. Rather than devices directly interfacing with multiple different OS and cloud protocols, they all communicate through this standardized text-based mediator, which handles the complexity of platform-specific implementations and reduces development time.
2Adaptability or versatility
If extensive code is written to achieve device interoperability and cloud communication, then functionality is enabled, but the code requires extensive security examination and revision
Solution Approach 1:
The patent extracts security-critical functions from the main communication code and implements them as separate, standardized protocols. By separating the text language protocol from platform-specific code and security validation logic, the overall codebase becomes less complex and easier to examine for security vulnerabilities, while maintaining full communication capability.
3Reliability
If traditional password systems are used, then access control is implemented, but passwords are vulnerable to theft and misappropriation
Solution Approach 1:
The patent implements dynamic password authentication where passwords are not static but change based on device identity, timestamp, and other parameters. This dynamic approach makes stolen or misappropriated passwords useless over time, as they cannot be reused for unauthorized access, thereby maintaining reliable access control while eliminating the security risks of traditional static passwords.
4Ease of operation
If files are stored locally on devices, then data accessibility is improved, but files are vulnerable to unauthorized access and misappropriation
Solution Approach 1:
The patent implements preliminary security measures by encrypting files with device-specific keys before they are stored locally. The encryption is performed in advance, so even if files are accessed without authorization, the data remains protected. This preliminary action maintains ease of operation for authorized users while preventing misappropriation by unauthorized parties.
Data Source
AI summary
Disclosed is a system and method for transmitting more data on the same bandwidth as current wireless and wired schemes use. A method for transmitting data can use orthogonal frequency domain multiplexing by identifying a lowest frequency subcarrier in an orthogonal frequency division multiplexing bandwidth that includes 64 subcarriers. The method can include receiving the second, fourth, eighth, sixteenth, thirty-second, and sixty-fourth subcarriers using a bandpass filter and decoding the set of orthogonal functions for each of the second, fourth, eighth, sixteenth, thirty-second, and sixty-fourth subcarriers. The method can further include combining the decoded data to recover the transmitted data.


