Embedded C programming using FRDM hands-on learning system design education

Author(s):  
Mohamad Taib Miskon ◽  
Suziana Omar ◽  
Nur Hafizah Rabi'ah Husin ◽  
Rosheila Darus ◽  
Zulzilawati Jusoh
Author(s):  
Brent Young ◽  
William Svrcek

Throughout the chemical and process industries, ever more emphasis is being placed upon extracting increasingly greater value from plant equipment, with substantial interest in energy efficiency and responsible environmental stewardship. Improved process control is almost unique in its ability to deliver substantial operational efficiency and environmental improvements with relatively little additional capital investment. As such, process control has become one of the most sought after skills within the chemical and process industries. Industry needs graduates that are educated in the latest and most relevant skills. Industry practitioners rely heavily on commercially available process simulation tools and hands on, time domain based control strategy development techniques, e.g. [1-2]. This paper describes an integrated, real-time approach to the education of undergraduate chemical engineering students in process control system design [3-4]. The real-time approach to process control system design education integrates introductory process control education and industrial practice. The approach focuses on the more applied and practical time domain based techniques derived from modern process simulation. The use of computers is a central theme to the approach, and their use in simulations and the software is carefully introduced. The students gain a thorough understanding of instrumentation, process design versus controllability trade offs, control loop configurations and tuning, practical techniques for the control of unit operations and basic plant-wide control. This integrated, real-time approach to the education of undergraduate chemical engineering students in process dynamics and control has been taught as a capstone subject at the University of Calgary since 1997 using active, “hands on” or resource based learning [5-6]. A small number of lectures at the beginning of the course are advocated from a learning perspective to motivate students rather than to simply transmit information. A majority of “hands on” tutorial and / or simulation sessions are recommended on case studies, workshops or projects facilitated by the instructors [7]. The approach is illustrated by examples from this capstone course.


Author(s):  
Russell J. Sojourner ◽  
Wesley A. Olson1 ◽  
Gary L. Serfoss

Structuring the ideal human factors curriculum has received considerable interest in recent years. A common theme stresses the need for hands-on learning. The United States Air Force Academy recently developed a human factors design course that emphasized critical thinking skills through interactive, collaborative techniques. Steps critical to the system design process were taught to the students and were subsequently performed by student design teams. The teams then submitted competitive proposals for a workstation being built as part of an actual dormitory renovation project. A “winning” design was selected at the culmination of the course, and was later implemented by construction contractors. The design effort received universal praise by Academy management, architects, and civil engineering personnel. Educational success was measured by standardized student critique data which rated the course significantly higher than composite scores from all Academy offerings. Collaborative hands-on design appears to have been a successful method of teaching critical human factors principles.


2010 ◽  
Vol 30 (1) ◽  
pp. 96-102 ◽  
Author(s):  
Kazuhiro FUJIMOTO ◽  
Atsushi KUROSAWA ◽  
Akihiro SUZUKI ◽  
Satoshi FUJITA ◽  
Hiroshi IWASAKI

2020 ◽  
Author(s):  
Martin Biermann ◽  
Salim Kanoun ◽  
Trond Davidsen ◽  
Robert Gray

Abstract Aims Since 2017, medical students at the University of Bergen were taught PET/CT “hands-on” by viewing PET/CT cases in native format on diagnostic workstations in the hospital. Due to the COVID-19 pandemic, students were barred access. This prompted us to launch and evaluate a new freeware PET/CT viewing system hosted in the university network. Methods We asked our students to install the multiplatform Fiji viewer with Beth Israel PET/CT plugin (http://petctviewer.org) on their personal computers and connect to a central image database in the university network based on the public domain orthanc server (https://orthanc-server.com). At the end of course, we conducted an anonymous student survey. Results The new system was online within eight days, including regulatory approval. All 76 students (100 %) in the fifth year completed their course work, reading five anonymized PET/CT cases as planned. 41 (53 %) students answered the survey. Fiji was challenging to install with a mean score of 1.8 on a 5-point Likert scale (5 = easy, 1 = difficult). Fiji was more difficult to use (score 3.0) than the previously used diagnostic workstations in the hospital (score 4.1; p < 0.001, paired t-test). Despite the technical challenge, 47 % of students reported having learnt much (scores 4 and 5); only 11 % were negative (scores 1 and 2). 51 % found the PET/CT tasks engaging (scores 4 and 5) while 20 % and 5 % returned scores 2 and 1, respectively. Conclusion Despite the initial technical challenge, “hands-on” learning of PET/CT based on the freeware Fiji/orthanc PET/CT-viewer was associated with a high degree of student satisfaction. We plan to continue running the system to give students permanent access to PET/CT cases in native format regardless of time or location.


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