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Paper Title Page
Abstract: As the field and application of mechatronics grows, Engineering and Vocational and
Technical education must grow with it to meet the needs of industry. This paper focuses on the
designing of a mechatronics courses for industry. University-government-industry and Private
Companies have collaborated in a project and shared responsibilities and tasks.
In this article, we describe our experience in running mechatronics courses for Engineers, Higher
Technician and Technician Courses in Ankara’s industry since 2001.We also describe an industryuniversity
co-operation model, training of trainers, the designing of a mechatronics laboratory and
course in accordance to the expectations of industry, setting up the feedback mechanism of keeping
quality of courses, developing projects financing and management methods
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Abstract: The purpose of this article is to design a mechatronics system to measure fluid friction
losses in a specially designed fluid friction apparatus. It measured fluid flow rates by using venturi
tube and orifice plate, and velocity of fluid is calculated in terms of flow rate and pipe diameter.
Friction factor (K factor) of some valves and fittings such as tee, elbow, Y Junction, gate and globe
valves and friction losses in pipe was measured in this system. It is one of the best methods to
measure losses in pipes and fittings experimentally.
It used a computer, data acquisition cards, pressure differential transmitters, venturi tube and
orifice meter to measure the flow rate, pressure drops on flow rate measurement devices and
pressure drops of some valves and fittings to be measured K factors. It also measured the
temperature of fluid by using J type Thermocouple.
A computer program is written to calculate the Reynold number of fluid, friction factor of pipe,
velocity of fluid, frictional losses of fluid, flow rate and K factor of valves and fittings. Required
data was received from measured quantities. The conclusion of experiments is shown in article.
Volumetric flow rate range was determined 0-1 (L/s), while the pressure drop was 0-100 kPa in
experiments.
603
Abstract: In the first part, the paper presents objectives of education in the biosystem engineering
field, generally, and in the field of biomechatronics, especially. A hybrid system of Engineering and
Biosystem is developed. Based on this, interrelations between components of engineering and
biological systems are developed. In the second part, our experience during the past three years in
introducing students to Biomechatronic engineering is described. The paper presents the specific
team – work project elements and some examples of typical projects.
609
Abstract: This article analyses a Mechatronic Systems` (MS) study process connected with the
more correspondent preparation process of engineering professionals in the faculty of Mechanics at
Vilnius Gediminas Technical University. The analysis and study highlighted aspects of the study
process development and its implementation that would enable one at the same rate to prepare more
qualified engineers. The authors suggest improving the MS study process for aspects of` practical
implementation. Realization of this improvement also requires an appropriate development of the
evaluation of the study process and its effectiveness. And this is also what the authors present in the
article. Suggested improvement would not only help to develop contemporary MS studies but it
could also be applied for the development of studies in other science areas.
615
Abstract: In the paper the industry role in the curricula of engineering education is examined.
There are shown that the information obtained on industry developments trends, product
export/import ratio as well as the level of investments injected into individual industry sub-sectors
helps to make projections as to the number and profile of future professional staff; more
specifically, as to the type of curriculum modules and the university acceptance level. Based on the
information obtained from university graduates and managers from industrial enterprises as well as
other authorities and summarized in an appropriate way, adequate corrections are introduced into
the curriculum module without prejudice to regulations of the Government of the Republic
Lithuania and to the provisions of the Bologna Declaration.
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Abstract: Rapid advances in technology have blurred traditional boundaries between engineering
disciplines and forced mechanical engineering graduate courses to embrace new subject areas.
These are not negative influences, but are simply a healthy response to rapidly advancing
technologies. A particular example is the combining in one study program, studies of different
engineering and structural materials (including composite materials, ceramics, polymers, etc.) and
methods and technologies of brazing, joining by welding, bonding by glue, etc of these materials.
Among all engineering programs, materials and mechanical engineering requires huge
laboratories and expensive facilities, as students need to develop practical experience. In order to
maintain an educational standard and quality, a university is forced to look for alternatives to handson
practical laboratories. One of the alternatives is to utilize a wide variety of computer-aided
learning packages and the simulation of physical-chemical processes in a welding pool and near to
its border. This paper sets forth a case for integrating aspects of materials and joining technologies
throughout a graduate curriculum.
625
Abstract: The paper presents a pilot program that ran from February-April 2005 at Vilnius Gediminas
Technical University (VGTU) and was organized by The Environmental Engineering Faculty with the
British Embassy. The course could suit technical/mechanical specialists and be adapted to different
study areas. Seminars and workshops for 70 participants aimed at improving English, thinking skills
and the application and integration of knowledge. Technologists, engineers, project-designers,
lecturers and business people working in the environmental sector completed 20 tools for thinking,
based on Edward de Bono’s Cort Thinking Program. The concept was based on 12 year’s experience
with lecturers and post-graduate students at V.G.T.U. and evidence of the need for extended studies
and specific English, thinking skills and competencies as required by today’s employees in Lithuania
as an E.U. member.
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