Mechatronics and micro-mechatronics concepts and techniques for intelligent integrating micro engineering.
Gheorghe, Ion Gheorghe
1. INTRODUCTION
The general concept of intelligent equipments and advanced
robotics, brings into the structure, systems and sub-systems MEMS and
MECHATRONIC/ MICROMECHATRONIC identified by experimental and behavioral
structure simulation, functioning and maintenance and by results of
measured signals and mathematical and physical models, but also through
destination of applications which will take into account the process or
product type from geometrical and precision characteristics, of nature
and properties of the materials used, of technical and technological
parameters and of process accessibility methods (Dumitriu, 2006).
The general and inovative concept of intelligent equipments and
advanced robotics, is realized considering elements structure,
components and functional compatibility, that enter in automatization and informatization chart of the ensemble, and depending on
micro-movements obtaining, micro-positionings and micro-measurements in
coordination, command, control and decision in expert matrix (Gheorghe,
2006).
The concept of intelligent equipments and advanced robotics,
integrates the architecture of sensors and micro-sensors in value chain
of signal generation and information transfer, actuators and
micro-actuators architecture in mobility chain of ensemble (Suzumori,
1991), architecture of electronic and micro-electronic units in signals
processing chain, controllers architecture in command chain and
coordination process automated and informatized, architecture of process
computers in driving process and architecture of software packages in
movement chain, measurement, integrated and decisional control,
commands, coordination, driving, visualization results, static status
monitoring and dynamic status (Brugger, 1993).
2. INTEGRATION OF INTELLIGENT EQUIPMENTS AND ADVANCED ROBOTICS
The intelligent equipments and advanced robotics, have been
realized and implemented by author and also in some high-tech level
companies.
An example of realized advanced robotics, is "the concept of
mecatronic micro-robot of measurement and dimensional integrated control
with five degree liberty with micro-detector with Laser fascicle",
used in metrological and industrial measurement processes, from
integrating industry of precision mechanics and mechatronics and showed
in the figure 1:
[FIGURE 1 OMITTED]
The constructive mechatronic solutions of the equipment and means
of sensors / transducers architecture integration are presented in the
figure 2 (Fatikow, 1997):
[FIGURE 2 OMITTED]
Functional chart of mecatronic micro-robot of measurement and
dimensional integrated control is showed in the figure 3:
[FIGURE 3 OMITTED]
3. EXPERIMENTAL DATA AND RESULT REGARDING INTELLIGENT EQUIPMENTS
AND ADVANCED ROBOTICS
3.1 Applications and comparison areas of actuators /
micro-actuators used at intelligent equipments and advanced robotics
From the laboratory experimentations performed can be synthesize diagrams that realize comparisons between different actuators as:
electrical micro-engines and step by step micro-engines,
microelectromagnets, piezoelectric micro-actuators, pneumatic and
hydraulic micro-cylinders etc.
So, in the figure 4, there is synthesized the maximum speed of the
micro-actuators and comparison speed-force:
[FIGURE 4 OMITTED]
In the figure 5 is synthesized positioning time for controlled
response operating.
[FIGURE 5 OMITTED]
3.2 Measurement of deviation from the roundness and / or from
rugosity
In the figure 6, there are presented the results of realised
measurement in laboratory, of roundness deviation and rugosity, using an
intelligent equipment with Laser detector:
[FIGURE 6 OMITTED]
4. CONCLUSION
In perspective, intelligent equipments technique and advanced
robotics, will develop new methods and mechatronics and
nano-mechatronics methodologies which will control at total quality
level of industrial products and of manufacturing processes,
contributing in this way to increasing competitiveness on national,
European and international level.
5. REFFERENCES
Brugger, J (1993). Nanopositioniersystem, Microelectronik, (5)
Collection Microsystem technique
Dumitriu, A. (2006). Mechatronics; Transilvania University of
Brasov Publishing House, ISBN 973-635-429-6, Brasov, Romania.
Fatikow, S. (1997). The Microsystems and robotics tehnology,
Springer-Verlag Berlin Heidelberg, ISBN 973-31-1387-5, in Germany
Gheorghe, G. (2006). Handbook of precision mechanic, mecatronic and
integronic engineer; Cefin Publishing House, ISBN 973-87042-6-8,
Bucharest, Romania.
Suzumori, K. (1991). Applying a flexible Microactuator for
Miniature Robots; Proc. of Int. Conf. on Robotics and Automation,
Sacramento, CA., pp 1622-1627