Development of cable trays in various private and commercial facilities ensures the proper functioning of electrical systems. The installation of these cable trays ensuring safety and precision, is entrusted to consoles. This thesis presents an analysis comparing the current bracket technology with two novel bracket technologies, with a focus on their load-bearing capacity and deflection. The research objective was to provide insight into the behavior of brackets under different loads and determine their ability to withstand demanding operational conditions. For the purpose of analysis, static analysis using SolidWorks Simulation software was employed. By conducting simulations under various loads, results regarding deformations, deflections, and load-bearing capacities of the consoles were obtained. Subsequently, the brackets were experimentally tested in accordance with the EN ISO 61537:2007 standard and compared with the computational simulation. Based on the test results, it was determined that the new technology can significantly influence the product's properties. Additionally, it was observed that the new technology, utilizing thicker materials, yielded the best results according to the EN ISO 61537:2007 standard. These findings provide essential guidelines for engineers and designers in the dimensioning and selection of cable trays brackets. Safety and reliability of such structures are critical factors for the proper functioning of electrical power systems in industrial facilities, warehouses, and commercial buildings. This research has yielded valuable results that contribute to a more comprehensive understanding of the behavior of cable tray brackets, thereby enhancing the reliability and stability of electrical power systems in various environments.