The paper deals with the application of alternative waste-based fillers from industry into two various types of polymer composite systems used in the automotive industry. The first type of alternative filler (GW) was obtained by treating the waste from the glass production. It was applied to the multi-component polymer matrix consisting of phenolic and melamine resin and nitrile rubber commonly used in the friction composite system for clutch facing production. Another type of alternative filler (EG) has been obtained from energetics where it is produced as a by-product of flue gas desulfurization. This type of filler was mixed into elastomeric composite system for tire production as a substitution of commonly used carbon black filler. The specific surface area of various fractions of alternative fillers used was determined and the influences of this fillers parameter on the rheology and vulcanization characteristics, as well as physical and mechanical properties of two types of newly prepared polymer systems have been investigated.

Diffuse coplanar surface barrier discharge (DCSBD) is an innovative plasma source that finds application in industrial practice and also in the surface treatment of various types of materials. The presented paper deals with the investigation of structural changes in selected thermoplastic materials that have occurred after their treatment with plasma discharge. The structural changes were investigated by using dynamic mechanical analysis, where the changes between the unmodified material samples and the thermoplastic material samples exposed to the plasma discharge, were compared, based on the obtained data of the storage modulus, the loss modulus and the loss tangent. For the experiment, thermoplastic materials were chosen, which are widely represented in the production of packaging materials, namely polypropylene (PP), polyethylene (PE), polyethylene terephthalate (PET).

Using the effect of mechanical forces affecting cellular response in the treatment of post-traumatic, postoperative, post-imlantation conditions through the application of Endermologie®-mechanotransduction represents a revolutionary solution in tissue-rehabilitation and positive target tissue influencing, with faster regeneration (1). Endermologie® is a noninvasive, painless, natural method of treatments of all connective tissue transformations, muscle and circulation pathologies. The aim of our study is investigation and explanation the mechanism of action by observing the physiological effects of Endermologie® based on human studies. The paper is focused on monitoring of possitive effect tissue regeneration using endermologie as a tools mechanostimulation improvements of systems integridy and health improvement.. Keywords Endermologie®, connective tissue, mechanotransduction, scar, 1 INTRODUCTION More than 30 years ago, a new non-invasive and natural way to treat traumatic changes in connective tissue, skin and the like has been discovered, with a proven positive effect on the regeneration and rehabilitation of systemic tissues through mechanical cell stimulation. End 70.r. In the 20th century, engineer Loius Paul Guitay suffered extensive skin injuries, muscles as a result of burns and scarring, resulting in increased adherence, tissue adhesion, loss of elasticity, momentum, attenuation of vascular and lymphatic circulation, increased stagnation of interstitial fluid, edema, fibrotic changes, decreased oxygenation of trophic tissues, and progression of degradation changes. In order to streamline the therapeutic process, in order to maximize shortening of the rehabilitation and regeneration period, to standardize treatment at any time within circadian biorhythms (elimination of negative human factors such as fatigue, exhaustion, disparity in the administration of procedures by individuals within the day) Louiom P. Gutayiom new system in terpaii called " Endermológia®. in conjunction with mechanical forces and physiotherapy techniques to achieve a better effect, in less time and under uniform conditions than manual physiotherapy-rehabilitation techniques. ENDERMOLOGY and LPG techniquesEndermológia® LPG® is a non-invasive, non-invasive, 100% natural, patented method of mechanical stimulation of cells, aimed at systemic tissue manipulation through application to the skin. Endermology represents interaction between the dosed vacuum and roller massage, controlled aspiratory force, frequency, controlled and controlled velocity and direction of roller movement. LPG® cell mechano-stimulation is carried out by specific software-controlled monitored therapeutic heads, tissuespecific so-keymodules, equipped with unique rollers and flaps, allowing personalized skin care treatments using the exclusive patented Roll and Lift techniques. The working head of the device with two completely independently driven and moving rollers (Fig. 1) creates a vacuum wave which moves forward, backward, sideways or diagonally by a s...

Experiment includes the study and identification of monolithic ceramic mining tools by machining the Domex 700 steel that belongs to the group of tough metals with high tensile strength. During the process of machining, the substandard high cutting speeds were used. Identification of ceramic mining tools included the analysis of cutting edge wear and the construction of map of surface roughness parameter Rz dependence on the change of cutting conditions for a given range (machine and material).

Since most of the implant surface is in direct contact with bone tissue, shape and integrity of said surface has great influence on successful osseointegration. Among other characteristics that predetermine titanium of different grades of pureness as ideal biomaterial, titanium shows high mechanical strength making precise miniature machining increasingly difficult. Current titanium-based implants are often anodized due to colour coding. This anodized layer has important functional properties for right usage and also bio-compatibility of dental implants. Physical method of anodizing and usage of anodizing mediums has a significant influence on the surface quality and itself functionality. However, basic requirement of the dental implant with satisfactory properties is quality of machined surface before anodizing. Roughness, for example, is factor affecting of time length of anodizing operation and so whole productivity. The paper is focused on monitoring of surface and area characteristics, such as roughness or surface integrity after different cutting conditions of miniature machining of dental implants and their impact on suitability for creation of satisfactory anodized layer with the correct biocompatible functional properties.