New concepts and solutions of micro-nano-mechatronics and micro-nano-integronics.
Gheorghe, Ion Gheorghe ; Cirstoiu, Carmen Adriana ; Istriteanu, Simona-Elena 等
Abstract: The scientific paper: New Concepts and Solutions of
Micro-Nano-Mecahtronics and Micro-Nano Integronics focuses on a new
systemic and synergistic view of the scientific knowledge and
discoveries in the high-tech field implemented in micro-nano-processing
micro-nano-engineering, micro-nano-technologies and high competitive and
high added-value micro-nano-products. The essential results of the
scientific paper are materialized into the conceiving and realization of
mechatronic and integronic products and systems with applicability and
flexibility in intelligent fabrication systems and in measuring,
verification and control products
Key words: micro-nano-mechatronics, micro-nano-integronics,
intelligent measurement, micro-nano-manufacturing,
micro-nano-engineering
1. INTRODUCTION
The new concepts and innovative solutions of
"Micro-Nano-Mechatrons, [micro]nM and Micro-Nano-integronics,
[micro]nI", applied in intelligent measurement technique by
integrating them into future intelligent automobile industry, are
treated in a systematic and synergetic new vision of knowledge and
scientific discoveries, creating new generations of advanced systems and
products for industry, research and education and by integrating new
mechatronie and integronic techniques and methods and also in structures
of technological, scientific and industrial intelligent platforms.
In compatibility Europe 2020 and 2030,
"Micro-Nano-Mechatronics and Micro-NanoIntegronics" is a
scientific strategy for smart and environmental growth and
pro/development strategy for innovation, research and education.
2. MICRO-MECHATRONIC AND MICRO-INTEGRONIC PROCESS/ SYSTEMS,
DESIGNED IN INCDMTM
2.1 Intelligent Micro-Mechatronic Machine for Dimensional Control
and Marking ,,Power Transfer Unit" for the Auto Subassemblies in
Large Scale Series Production (Fig. 1)
[FIGURE 1 OMITTED]
** The machine is revealed by:
* New MIX intelligent concepts (Gheorghe, 2003) in shape, structure
and operating comparative with the technical European levels regarding
measuring, validation and certification;
* The original technical infrastructure design, using specialized
soft wares for simultaneously design (enginery competition): (AutoCAD,
SolidWorks, Catia, etc.);
** Technical features:
* Time: 85 sec (measurement + marking);
* accuracy of the measurements: [+ or -] 0,005 mm;
* 100% control
2.2 Mechatronie Intelligent Unit for Tightness Cheking (Negative
Pressure/vacuum) Reverse Module TL8--Machined (Fig. 2)
[FIGURE 2 OMITTED]
The testing intelligent unit is a mono-block construction and
verifies the air loss from the pieces who composed the Reverse module
(Power transfer unit).
The ATEQ-cell introduces air in the obtained cavity of the piece
(-0,5 bar); the admissible air loss must be under 0,25 [cm.sup.3]/s;
** Technical features:
* work pressure 5 bar;
* tightness test pressure: -0,5 bar;
* admissible air loss: 0,25 [cm.sup.3]/s;
* accuracy: [+ or -] 0,02 [cm.sup.3]/s;
* work time/tour: ~40 sec/piece
3. MICRO-ROBOTIC SYSTEMS FOR NANO-PROCESSING AND MICRO-POSITIONING
3.1 Robotic, micro and nano-robotic MEMS & NEMS
Robotic, micro and nano-robotic MEMS & NEMS (Fatikow et al.,
1999), ensure the future and the evolution of development technologies,
micro and nanotechnologies, as follows: systems and technologies for
micro-nanopositionings and micronanomeasuring, principles and new
concepts in "hybrid precise system" for systems and
technologies at micro and nano scale.
3.1.1 Cartesian nanomanipulator with nanometer resolution,
presented in Fig. 3.
[FIGURE 3 OMITTED]
Technical and functional characterization:
--increment displacement: 0.4 nm
--the range: 10 / 100 mm
--working speed: 2000 m / s.
3.2. Intelligent robotic mechatronic systems
3.2.1 Intelligent mechatronic roboic center for micro-processing in
mechatronic industry (Fig. 4)
[FIGURE 4 OMITTED]
3.3 Research on the hexapod robot
3.3.1 Applications in Medical Mechatronics
In the figures below (Fig. 5, 6 and 7), are shown medical
nanorobots working.
[FIGURE 5 OMITTED]
[FIGURE 6 OMITTED]
[FIGURE 7 OMITTED]
3.3.2 Applications in integronic robotics
Therefore, the realization and development of integronic robotics
characterizes scientific orientation at the junction of several
sciences, not missing biomechanics, precision mechanics, mechatronics
and control and theory.
3.3.3 Research on the hexapod micro-robot
(a) Micro-robotic system description (fig. 8)
(b) The Mechanics of the hexapod robotic system
(c) Synchronizing movement on the 6-axis robotic system
(d) The electronics of the Hexapod robotic system
(e) The informatics of the hexapod robotic system
(f) Communication with the controller in a hexapod robotic system
(g) RS-232 connection to the hexapod robotic system
(h) TCP / IP connection
(i) The hexapod robotic coordinate system
[FIGURE 8 OMITTED]
If the pivot value is (0,0,0), it is located relative to the
platform as shown in Fig. 9.
[FIGURE 9 OMITTED]
[FIGURE 10 OMITTED]
4. RESEARCH CONTRIBUTIONS AND PERSPECTIVES
The research activities related to the paper, were based on
scientific hypothesis of conception, implementation, experimentation
mechatronics solutions for equipments and intelligent systems for
integrated control in automotive industry, for modelling micro-systems
and nano-robots with application in mechatronics and in medicine and for
analysis, testing and application of the hexapod micro-robot. The
following research will be focused on:
* conception, realisation and implementation of new microsystems,
integronic microequipments with application in manufacturing processes
that take place in clean rooms;
* conception, realisation and implementation of micro-tools and
micro-nanorobotics microdevices with possibilies for modernizing
phisycal and laborator medical processes.
5. CONCLUSIONS
The conclusions of the scientific paper highlight the following
aspects:
* The conceiving and defining new micro-nano-mechatronic and
micro-nano-integronic fields;
* The creation of new generations of high-tech mecahtronic and
integronic systems and products.
6. REFERENCES
Fatikow, S., Magnussen, B. and Rembold, U. A Piezoelectric mobile
robot for handling of microobjects. Proceedings of the International
Symposium and Microsystems, Intelligent Materials and Robots (MMIR),
Sendai, 1995, pp. 189-192.
Fatikow, S., Rembold, U. Microsystems technology and microrobotics.
Bucharest Technical Editure, 1999
Dexler, E. et al. Unbonding the future: The Nanotechnology
Revolution, William Morrow Verl., New York, 1991
Gh. Gheorghe, D.D. Palade, Ulm Spineanu, Valentin Pau. Precision
mechanics, Mechatronics and Integronics Engineer's Handbook.
2006--ISBN-10: 973-87042-6-X, ISBN-13: 978-973-87042-6-8
Gh. Gheorghe. Integrated Mechatronics--Integronics--2003--ISBN
973-99591-0-51 973-99591-8-0