Abstract: The article scientifically examines the potential of magnetic levitation technologies
in the context of increasing precision measurement requirements in modern technologies. Magnetic
levitation systems (MLS) offer contactless, highly sensitive measurement capabilities, especially
advantageous in terms of eliminating vibration and mechanical friction. The fundamental
electromagnetic principles used in such systems are explained within the framework of the
Lagrangian function and nonlinear dynamic equations, with detailed analysis of system stability
conditions and control models.
The purpose of the article is to mathematically substantiate the operating principle of highprecision measurement devices used in industrial and scientific research fields, and to develop
analytical models and apply simulation methods to improve the efficiency of these systems. Within
the presented mathematical model framework, the relationships between physical variables and
control parameters of the magnetic levitation system are identified and their impact on measurement
accuracy is evaluated.
The results show that measurement technologies based on magnetic levitation systems have
great potential not only to replace traditional mechanical systems but also to create long-lasting,
wear-free, and high-response control and measurement systems. This approach enables the
development of high-precision, contactless measurement systems applicable in microelectronics,
aerospace industry, biomedicine, and nanomechanics.
Keywords: Magnetic levitation system, parameter, technological processes, model, optical
sensors