Under the CDIO engineering education innovation, the exploration and construction process of the teaching material named Fundamentals of Circuit Analysis was discussed in this study.
Under the CDIO engineering education innovation, the exploration and construction process of the teaching material named Fundamentals of Circuit Analysis was discussed in this study.
This paper put emphasis on change agents within the universities and how local initiatives can be systematically approached and ramped up.
In order to graduate globally capable engineers who are not only technically savvy, but socially competent and business smart, Sheridan’s School of Engineering has found both a process and a ‘place
With the constantly improve requirements of engineering and technical personnel, the reform of personnel training mode in engineering technology fields is also imperative.
The implementation of the “Bologna process” has culminated at ETSII-UPM with the beginning of the Master’s Degree in Industrial Engineering, in academic year 2014-15.
Timely and individualised feedback on coursework is desirable from a student perspective as it facilitates formative development and encourages reflective learning practice.
Since 2005, there have been ten annual CDIO conferences. In this article, we analyze the development of the articles from 2005 to 2013.
This paper delves into the sixth CDIO standard, Engineering Workspaces, to make accessible to all students, virtual workspaces.
Presentation by Dr Ruth Graham at the CDIO-seminar at Chalmers University of Technology, december 3rd 2014.
The world of higher engineering education still stresses capabilities that are no longer critical in the new world and seems to ignore those that are gaining prominence.
Engineers conceive, design, implement, and operate (CDIO).
This paper describes the journey and discusses the approaches of enhancing faculty teaching competencies (CDIO Standard 10) for the Diploma in Aeronautical and Aerospace Engineering at the School o
Faculty enhancement is a big challenge, if not the greatest, when implementing a CDIO curriculum or any student centered/active learning approach.
National accreditation standards and international agreements redirect the thrust of engineering programs towards a “competencies” based education.
In 2011, the Industrial Engineering program at the Universidad Católica de la Santísima Concepción began implementing a curricular reform based on the CDIO approach.
This paper describes a new graduate level educational initiative based on the modified CDIO syllabus proposed by Crawley et al [1] at the 2013 CDIO Annual Conference.
Delivering lectures in classes with large number of students is always a big challenge for the lecturers, especially for engineering classes.
This paper describes the Service Learning Center recently created at the School of Engineering of the Universidad Católica de la Santísima Concepción (UCSC), Chile.
This paper describes the active learning method used in a programming lab course in the Computer Science program at the Universidad Católica de la Santísima Concepción (UCSC).
In this paper, we consider the advisor's role during the technical work and the thesis preparation for a student in the final phase of a course of study in an engineering education.
AIMING TO EDUCATE INNOVATIVE ENGINEERS The way how work is done undergoes big changes in the future.
CDIO recommendations have been borrowed from best practices applied in several renowned and mature engineering schools worldwide.
Electronics engineering program at Pontificia Universidad Javeriana Bogota- Colombia has been renovated following the guidelines of the CDIO philosophy.
We present a recently developed learning model of integrated learning in the Bachelor programs in Mechanical Engineering as well as Electrical and Computer Engineering at Umeå University, Sweden.
In year 2007 the new plan for engineering studies at the Faculty of Physical and Mathematical Sciences of University of Chile begun.
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.