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Program Benchmarks


 
Mechatronics Engineering
 

The profession of mechatronics engineering can be defined as working on analyzing, designing, and controlling mechanical and electronic systems via computers. Today, mechatronics systems have become important in the industrial world, and consequently, many universities have established bachelor's degrees in mechatronics engineering.

The tasks of a mechatronics engineer can be summarized to include designing digital circuits, writing software for programmable microcontrollers, designing integrated circuits, designing mechanical systems, designing electromechanical systems, controlling electromechanical systems using programmable logic controllers or computers, and mechatronics engineers are also prepared for research in the field of robotics, which is fundamentally built on the use of mechanical and electronic systems.

Among the most important factors that helped launch the academic plan for mechatronics engineering at Philadelphia University are the following:

Industrial Needs

Due to the development of regional industry through automated production and computerized manufacturing, and the increasing requirements for multidisciplinary engineers with in-depth knowledge in mechanics, electronics, and computers, the demand for engineers capable of dealing with these integrated systems has increased, even though the term mechatronics was not well-known at that time.

Educational Motivation

The interaction between different engineering fields has encouraged students to study how various engineering systems work, which developed the need to establish an academic plan that presents courses in integrated systems engineering (mechatronics).

Need to Develop Mechanical Engineering

As engineering technology advances, computers and electronics play greater roles in mechanical systems, and therefore mechanical engineers began taking courses in electronics and computers to develop themselves in modern mechanical systems technology.

Objectives

Philadelphia University confirms that the main objectives in launching the mechatronics engineering curriculum were as follows:

 
1

Teaching integrated engineering systems to equip graduates with the necessary knowledge and skills to meet the needs of regional industry.

 
2

In-depth knowledge through analysis, experimentation, and computation in the following sciences: mechanics, electronics, control, and computer engineering.

 
3

Knowledge and skills in analyzing, designing, programming, building, and maintaining integrated engineering systems.

Challenges

The major challenges in developing a successful academic curriculum in mechatronics engineering in the Middle Eastern Mediterranean region are:

 
1

The size of "production, computerized automation, and manufacturing" in industry is relatively small.

 
2

The technology used is imported, and therefore there is a shortage of designers and maintenance and support centers.

 
3

Research is quiet due to most local universities not offering degrees in mechatronics engineering.

Benchmarking and Standards

The main purposes of benchmarking and standards data are to support:

 
1

Higher education institutions in designing and validating study programs.

 
2

Academic reviewers and external examiners in verifying and comparing standards.

 
3

Professional bodies during the review and accreditation process.

 
4

Students and employers when they want information about higher education items.

The outputs of mechatronics engineering are integrated systems that can be distinguished from basic sciences. Based on the above, the characteristics of the outputs of this degree can be set as shown in Table No. (1)

The purpose of the process of setting specifications and characteristics for mechatronics engineers is to assist in:

 
1

Designing and implementing study programs in higher education institutions.

 
2

Setting professional specifications for review and accreditation purposes.

 
3

Providing students and employers with information regarding higher education institutions.

Assessment

To develop the assessment process, some basic elements must be taken into consideration as follows:

• There must be sufficient and distinctive opportunities for students to demonstrate that they have achieved the minimum threshold for each component of the basic characteristics and attributes.

• Achieving minimum standards may in some cases be implicit in the higher education stage (for example, completing any project may demonstrate the acquisition of some general acquired skills).

• Achieving the minimum threshold is possible without requiring the knowledge needed for all assessment items (for example, a specific assessment item may include one of the components of the attributes where a student can achieve the minimum threshold for that component regardless of passing the combined components).

• Careful selection of multiple assessment methods can make the assessment process efficient and effective.

• It is important that this strategy provides sufficient opportunities for "the best students" to display a level of creativity fundamentally associated with excellence and mastery.

Recommendations

 
1

The characteristics statement presented in Table No. (2) and based on the essence of what is mentioned above should be used to guide the academic review of engineering programs.

 
2

Mechatronics engineering fields should use the standards presented in Table No. (1) to reach a balanced and disciplined interpretation for each field.

 
3

One of the responsibilities of engineering professional institutions is to set specifications for professional fields and these should be linked with other appropriate specialized fields.

 

Contact Information

Jarash Road, 20 KM out of Amman, Amman Jordan

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