Modular operating system with context-controlled function architecture

Abstract

System architecture comprising a central control unit and several context-controlled activatable functional units, with each functional unit operating in isolation.

Description

1. Technical field

[0001] The invention relates to the structure and organization of a digital operating system, in particular a modular system for the context-controlled activation of isolated functional units within a central control unit. 2. State of the art

[0002] Conventional operating systems load all services, drivers, and programs at startup, regardless of actual need. This leads to resource overload, instability, and security risks. They lack an adaptive architecture for dynamically managing functions, memory, and platforms. 3. Object of the invention

[0003] The aim of the invention is to provide an operating system that: • Functions divided into isolated units • Only activated when needed • Dynamically allocates resources • Identified security risks • Performs updates selectively and contextually • Cross-platform use is enabled • Integrated self-protection and recovery 4. Solution to the task

[0004] The invention comprises: • A central control unit with a minimal core system • Several context-controlled functional units (“modules”) • A user interface for selecting tasks • Dynamic memory management with physical and virtual memory • One processor core allocation per functional unit • A security structure with isolated access zones • A module-related update logic with test mode • An archiving unit for inactive programs • A backup and recovery unit with cloud connectivity • A platform connection unit for using Android functional units on desktop devices and Windows functional units on mobile devices 5. Extended Features ◇ Memory management • Each functional unit receives dedicated RAM zones. • Virtual module memory for acceleration • Critical drivers remain isolated in physical memory ◇ Self-protection & recovery • Safe Mode with Administrator Access • Device management and kernel log access • System file copy for migration to other hard drives • Cloud backup per module ◇ Cross-platform use • Android functional units on desktop devices • Windows functional units on mobile devices • Real-time synchronization via Wi-Fi or Bluetooth • Isolated safety zones per platform ◇ Archiving & Maintenance • Inactive programs are moved to separate units • Suggestions for uninstallation or replacement with alternatives • Automated evaluation based on usage patterns and security status 6. Advantages of the invention • Reduced resource consumption • Increased system stability • Improved safety through insulation • Scalability for different device types • Cross-platform flexibility • Integrated self-care and restoration List of technical illustrations 1. Fig. - Dialog structure with kernel and context-controlled task selection: Representation of user interaction via a central dialog interface, controlled by the kernel. 2. Fig. - Modular system architecture with isolated functional units: Overview of the central control unit and the modular distribution of functional units with separate I / O RAM. 3. Fig. - Cross-platform synchronization unit: Represents the bidirectional connection between mobile and stationary devices via WLAN / Bluetooth, controlled by the kernel. 4. Fig. - RAM allocation per functional unit in the operating system. Visualization of the dynamic memory distribution (physical / virtual) per module within the system architecture.

Claims

[1] System architecture comprising a central control unit and several context-controlled functional units, each of which is operated in isolation. [2] Modular structure, in which each functional unit has its own memory zone and processor resource, separate from other units. [3] User interface that enables context-controlled selection of functional units based on user intent. [4] Memory management unit that dynamically allocates physical and virtual memory areas per functional unit. [5] Security unit that protects each functional unit against external access and locates threats. [6] Update unit that performs updates only for activated functional units and provides a test mode. [7] Kernel control unit that dynamically assigns processor cores to individual functional units and manages their priority. [8] Cross-platform system unit that operates Android-based functional units on a desktop device and Windows-based functional units on a mobile device within a common core system as isolated functional units. [9] Synchronization unit that enables a bidirectional connection between mobile and stationary devices, mirroring app states, notifications and data in real time. [10] Cross-platform storage management unit that dynamically distributes virtual and physical storage areas between Android and Windows functional units. [11] Cross-platform security structure that protects each functional unit against cross-system threats and uses the central control unit as a control point. [12] Backup unit that creates incremental backups of each functional unit in cloud storage and is automatically activated in case of system risks. [13] Recovery unit that allows a copy of the operating system structure to be made to an external hard drive and allows a full system start in the event of failure of the main hard drive. [14] Safe Mode with administrator access, which can be activated to protect against system failures and provides access to device management and module status. [15] Archiving unit that automatically moves inactive functional units to a separate functional unit, which is isolated from the active operating system and monitored by the central control unit. [16] Maintenance unit that makes suggestions to the user about uninstalling, reactivating or replacing inactive programs based on usage behavior and security assessment.

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