CONCENTRATION AREAS
Materials and Manufacturing Processes
The Postgraduate Program in Mechanical Engineering at UFU stands at the forefront of multidisciplinary exploration, with a particular emphasis on areas such as tribology. This field integrates facets of mechanical engineering—encompassing contact physics, solid mechanics, instrumentation, and signal analysis—with materials engineering and science, covering the processing and characterization of new materials, and the study of surfaces in contact. Notably, UFU’s Mechanical Engineering program is a trailblazer in this innovative initiative.
A key focus lies in the application of techniques to monitor manufacturing process parameters. This includes analyzing vibration signals, machining forces, machine drive power, and acoustic emission (AE) signals during machining. An additional noteworthy aspect involves the adept use of inverse method techniques to address challenges related to heat generation in machining and welding processes, with a specific emphasis on turning and drilling processes.
The program’s commitment to these aspects is palpable in the wealth of master’s dissertations and doctoral theses. Moreover, the intellectual production and research projects featured in this report, supported by funding agencies or collaborative efforts with partner companies in research and technological development, further underscore the program’s dedication to advancing knowledge and contributing to the evolving landscape of materials and manufacturing processes.
RESEARCH LINES
- Materials and Manufacturing Processes
- Tribology and Materials
Heat Transfer and Fluid Mechanics
The Postgraduate Program in Mechanical Engineering at UFU actively engages in the intensive application of computer science techniques across a spectrum of research domains. Noteworthy applications include:
- Turbulence:
- Leveraging computer science techniques for the analysis and simulation of turbulent flows.
- Numerical Methods:
- Utilizing advanced numerical methods to address complex engineering challenges.
- Parallel Processing:
- Harnessing the power of parallel processing for enhanced computational efficiency in various applications.
- Mathematical Modeling of Complex Fluid Dynamics Problems:
- Applying computer science methodologies to model intricate fluid dynamics problems, including fluid-structure interaction and bioengineering.
- Optimization of Mechanical Systems:
- Employing computer science tools for optimizing complex mechanical systems, incorporating impact analysis, meta-models, genetic algorithms, and evolutionary techniques.
- Heat Transfer:
- Solving inverse problems in heat transfer through the application of computational techniques.
- Dynamic System Identification:
- Utilizing computer science methodologies to identify and analyze dynamic systems.
This interdisciplinary approach underscores the program’s commitment to cutting-edge research and innovation. The incorporation of computer science techniques not only enhances the depth of analysis but also enables the exploration of complex phenomena, contributing to advancements in fluid dynamics, mechanical systems optimization, and various other fields within mechanical engineering.
RESEARCH LINES
- Fluid Dynamics and Heat Transfer
- Energy Conservation and Generation
Solid Mechanics and Vibration
RESEARCH LINES
- Dynamics of Mechanical Systems
- Mechanical Systems Projects
- Biomechanics
