Software Architecture and Simulation Framework for Interactive Visualization of Cryptographic Algorithms.

In this paper, we present the design and implementation of a dedicated software architecture engineered for the interactive simulation of core cryptographic primitives. Due to the high abstraction level of modern cryptographic protocols, processing complex algebraic transitions often introduces substantial cognitive barriers during the early stages of data security training. To address this limitation, we developed an execution-driven visual pipeline that dynamically maps the algorithmic steps of both symmetric (e.g., Caesar and Vigen\`ere ciphers) and asymmetric (e.g., RSA) cryptosystems. By establishing a robust synchronization loop between the core computational backend and the responsive user interface layers, the proposed framework minimizes human cognitive overhead during internal state mutations. The operational reliability and computational efficiency of the framework are systematically validated through execution-path tracking and quantitative user-performance metrics.

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