This dissertation creates a system and set of algorithms used for analysis and interpretation of the locomotive system. The accept of data of the static and dynamic of the locomotive system is done thanks to a specially designed slope sensor, which conjugated with anatomical locations, after an electronic processing of the basic electric signal, including the analog - digital conversion, gives a finite numerical form of data about the incline of the anatomical location with respect to the perpendiculum to the horizontal position. This information about the incline can be understood as a reflection of the locomotive activity of the body, and as such be considered from various static and dynamic aspects. The set of such spatially distributed converters that have undergone multi channel analog digital conversion, then processed into a specially designed computer program, is capable of reconstructing static, i.e. the posture of the body, and of answering different questions within the area of the dynamic of the locomotive system. The area of the dynamic that are processed in work are: the time domain of the dynamic of the time series of the anatomical location incline, phase space for the considering of the nature of the time series dynamic, and the frequency domain of so-collected time series. The analysis of the time domain brings apriori and aposteriori processing of the signal of the locomotive apparatus incline, such as the processing with a specific transitive function, and the operation of smoothing and locating a given segment. The review of the locomotive system in phasial space gives one solution to the problem of the optimization of “lag-time”, the embedded phasial space for presentation of nonlinear dynamic, or chaotic processes, with the help of the characteristics of the Fourrier spectrum, thus giving ground for study of the locomotive system time series from the perspective of a nonlinear dynamic, or a chaotic process. The analysis of the frequency domain constituting and calculates a frequency, transfer characteristic of the spine. It also gives parameters and functions of potential relevance to diagnostics and analysis, such as the coefficients of asymmetry and rigidity of walk, introducing the term of gravity center of the harmonic system, also used in determining “lag - time” in the phasial space. Every chapter of analytical thematic contains examples and comparisons of healthy and pathological conditions.