DESIGN OF EXPERT SYSTEMS FOR CREATION OF SPECIAL SHAFTS WITH LIQUID CONTROL FOR INNOVATIVE MACHINES

Abstract

This paper addresses the development of theoretical foundations for the design and calculation of fluid-filled shafts and
rollers-key components in modern machines that currently lack comprehensive theoretical generalization. These elements,
critical for cutting-edge physicochemical technological processes such as vacuum plasma metallization, holographic coating,
and electron chromium plating, are primarily documented in patent literature with limited academic research. The work
proposes a systematic approach to analyzing, classifying, and synthesizing various types of liquid-regulated shafts using
morphological analysis. A general theory is formulated based on structural features, regulatory parameters, fluid dynamics
principles, and energy efficiency considerations. The study identifies and categorizes functional groups and interrelated
components, enabling the logical synthesis of novel shaft systems with enhanced thermal and mechanical properties. It
demonstrates the feasibility of creating over fifteen classes of fluid-filled shafts, predicting devices with advanced qualities such
as variable deflection and temperature regulation. The resulting theoretical model provides a foundation for the design of highly
efficient, competitive machine components applicable in vacuum environments and other specialized industrial settings.