Many engineering disciplines require practitioners to be conversant with codes or standards of practice that are relevant to their area of discipline.
Many engineering disciplines require practitioners to be conversant with codes or standards of practice that are relevant to their area of discipline.
This paper describes the approach to integrate engineering and design where students learn the practice and application of engineering skills and foundation design skills in year 1 of their study.
The new Software Engineering degree program has been designed as a collaborative effort between the School of Electrical and Information Engineering and the School of IT at the University of Sydney
To train students and prepare them for industrial projects, where two key elements are communication and planning, we expected a Design, Build, and Test (DBT) project would use available staff effi
The software development process is the backbone of any Informatics Engineering program.
Various blends of pedagogical strategies and technological affordances have been proposed for the 21st century learners commonly known as the Net Gen, Gen Y, or Digital Natives.
Participative learning enables students to actively shape and share their learning experience, in achieving the goals of reflection and transformation.
The CDIO Framework calls for the development of appropriate workspaces that support and encourages the learning of product or system building, disciplinary knowledge and social learning (Standard 6
This project was a collaborative effort by the Department of Mathematics and Science, the Library and the Educational Development Unit of Singapore Polytechnic.
To promote active learning, lecturers should know how their students learn.
A systematic approach for developing the requirement specification, or design brief, of new learning spaces is presented.
Projects are frequently used to promote integration of knowledge and skills. However, designing effective project based activities is a challenge as it entails many variables.
During the Spring of 2009 a collaborative project was initiated between the Schulich School of Engineering at the University of Calgary (UofC) in Canada and the College of Engineering at Shantou Un
Engineering knowledge has been subject to software development for decades. Software opens the door for new kinds of multi-disciplinary collaboration between architects and structural engineers.
The traditional approach of teaching structural analysis and design modules has several shortcomings.
The research scheme proposed in this article describes the development of a PC-based teaching/learning approach to power systems education.
Simulation-based learning (SBL) has been widely used and accepted in the industry (think aircraft simulation for example).
The Department of Mathematics and Science (MS) and the School of Architecture and the Built Environment (ABE) in Singapore Polytechnic (SP) have adopted the CDIO educational framework in the Diplom
In order to cultivate creative civil engineering graduates with CDIO (Conceive-Design-Implement-Operate) competencies, a core engineering fundamental course, “Civil Engineering Materials”, was rede
In year 2005, College of Engineering at Shantou University adopted the CDIO Initiative.
This paper presents the work of the School of Electrical & Electronic Engineering (SEEE) faculty at Singapore Polytechnic who have been reframing and redesigning their engineering curriculum to
It is crucial for Engineering students to be adequately prepared for successful cross-cultural encounters before they embark on any overseas industrial attachment or community service program.
Demand in the business sector for highly skilled and multitalented new graduates is ever increasing.
This paper presents experiences and results from large scale and systematic use of the CDIO Syllabus for developing program goals and formulating learning outcomes at Linköping University (LiU), Sw
Since a couple of decades many engineering education programs focus on engineering capabilities and on how knowledge will be used rather than on engineering knowledge per se.
Defining customer needs; considering technology, enterprise strategy, and regulations; developing concepts, techniques and business plans.
Creating the design; the plans, drawings, and algorithms that describe what will be implemented.
The transformation of the design into the product, including manufacturing, coding, testing and validation.
Using the implemented product to deliver the intended value, including maintaining, evolving and retiring the system.