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December 16, 2019The Fluid Power Systems Laboratory (LABSON UPC) has collaborated with the company AUSA to study telehandlers.

Telehandlers are all-terrain mobile machinery that can be used to reliably undertake tasks at high elevations in the construction and agricultural sectors. They are designed to transport and lift loads of material in high areas. They consist of a moving, telescopic arm at the end of which (boom) the operator can attach accessories such as buckets or forks of different types. Loads are moved through a horizontal scope and elevated vertically. This is a very compact machine (it combines the functions of a digger and a forklift truck) that can work in very small, complicated places, as it is highly manoeuvrable and versatile.
An energy audit was undertaken of the hydraulic drive system for the lifting and tilting mechanisms, and the life expectancy of hydraulic components was calculated (useful life and residual life of hydraulic components that are subject to fatigue). Low performance sections were identified and optimised to contribute to minimising non-productive energy consumption. Finally, the technical specifications of the most significant hydraulic components were defined.
As a scientific and technological base, LABSON, in collaboration with external entities ROQCAR (Tona) and IBHER (Zaragoza), has introduced an experimental methodology in which the telehandlers and their components are subjected to numerous sets of mobile tests in the field. The aim of the field tests is to reproduce the real conditions of use or some very specific phenomenon to study separately in detail. At the same time, an analysis and monitoring system has been created that complements the full chain of sensors. This system enables large quantities of data to be used and processed to make the best decisions and understand how to improve product quality, reduce incidents and faults, cut costs and increase productivity (functioning time of the machinery).
Related Projects
- The Innovation in Materials and Molecular Engineering – Biomaterials for Regenerative Therapies (IMEM-BRT) research group at the Universitat Politècnica de Catalunya – BarcelonaTech (UPC), in collaboration with the Institute of Chemical Research of Catalonia (ICIQ), has developed polymer resins derived from plant-based materials to reduce the dependence of 3D printing on fossil fuel-based resins.
- The company Natural Machines and the Heat and Mass Transfer Technological Centre (CTTC-UPC) at the UPC have completed the EFICIENT3D project, during which a low-energy cooking system was developed by integrating advanced heat transfer technologies into the 3D food printer, Foodini, commercialised by Natural Machines.
- The Centre for Advanced Technologies in Mechanics (CATMech) at the Universitat Politècnica de Catalunya - BarcelonaTech (UPC) is involved in a project to explore additive manufacturing technology with concrete to provide innovative solutions to the construction market. The project, called ADRIANO, aims to develop a real-time control system for the concrete manufacturing process, to estimate the expected outcome and anticipate decision-making on its various stages.
- A team of researchers from the Manufacturing Technologies Research Group (TECNOFAB) at the Universitat Politècnica de Catalunya - BarcelonaTech (UPC) has participated in BRUVIT. The aim of this project is to develop and validate the ball burnishing process assisted by ultrasonic vibration to improve the hardness and surface integrity of parts on a parallel lathe.