Internet.IntroductionToday, educational institutions are increasing their use of the computer basedtechnology in the teaching environments1. There are various ways how to use thistechnology, but basically the computer-mediated learning can be used as single teachingmedium or it can be used in combination with traditional classroom experience2. Onlineclasses have advantages and disadvantages3 .This is actually means that there is not auniversal approach how to use the internet for education, especially for courses withlaboratories. There are still discussions how to utilize the distance education toundergraduates when the laboratories are involved4. Meanwhile some universities areusing the lab-based courses on the internate5,6,7,8. There is an indication of
equipment used in the laboratory. These are the textbooks that are used inindustry. These documents are sometimes inconvenient when used as a teaching textbook, butthe solution carries an added benefit that the students are well trained in using technical manualsand sorting their way through datasheets after having gone through the curriculum. In someinstances supplemental material must be provided as a datasheet does not give attention to allissues. One such issue is that of EOAT selection. If an angular finger gripper is required whatforce must be used to maintain hold on the payload? If a vacuum cup is required, how muchvacuum is required? Another issue is communication networks. How does DeviceNet work?What are the priority levels in the
Laboratory Experiences That Do Not Stifle CreativityLaboratory courses often supplement basic science classes in high school and college. Thehands-on activities provided in laboratories can challenge and excite students in a ways notachievable through traditional lecture-style teaching. Working in laboratories gives studentsopportunities to explore scientific concepts while applying knowledge gained classrooms. Page 22.941.2These experiences not only reinforce textbook ideas, but also instill students with confidence inboth their knowledge and abilities. The benefits of laboratory activities and their contributions toengineering-student retention
. Learnersexpressed various active teaching methods such as on-line reading materials, posted lectures,video demonstrations, hands-on laboratories, and various communications means (relay chats,forum discussions) help them engaged the workshop more. As some of the feedbacks shownbelow:Overall, fantastic! I enjoyed it. The readings helped. We could do more programming if therewere more time. I never learned so much in just 3 days. Please send my thanks to all of thepresenters and helpers who made it work so well.I enjoyed the class. Instructors were well prepared. I want to try conducting an on-line labmyself in the future.I wish there were more workshops like this available. I learned a lot without needing to travel.It was not just a bunch of fluff and waste
“experiment first” approach. It is believed that depending on the course type and thestudent learning style, learning could be affected by the teaching approach. Further studyon the lecture-laboratory timing that could lead to an effective pedagogy isrecommended.IntroductionLaboratory exercises are an essential part of engineering technology education. In mostof the mechanical and manufacturing engineering technology courses, hands-on labs aredesigned to help student to acquire the knowledge and skills taught in the class. Sincepositive effects of lab activities on student learning have been recognized, engineeringand engineering technology professors continue to develop and incorporate laboratoryexercises into various courses.To introduce science
Reversing Table 7- Summary of the Student Lab SurveyConclusionsIn this paper, we described our experience teaching a multidisciplinary course in an EngineeringTechnology program. We described how the redesign of the laboratory component has greatlyenhanced the student learning experience independently of their majors of studies. It wasobserved that activities relating concepts to real world applications were most appealing. Forinstance, students enjoyed performing experiments involving the use of transducers.Assessments results including direct and indirect measurements to meet certain accreditationcriteria were also discussed in this paper. Several lessons learned from this course revisionprocess for in future
from the laboratory work. 3.57 4 4 3.32 3.5 4Overall, this laboratory instructor was effective at teaching this course. 3.67 4 4 3.49 3.5 4 However, student comments revealed something quite unexpected. In both casesstudents voiced a strong affinity toward lab exercises that were unstructured. These unstructuredlab assignments that simply stated a system requirement were preferred to those that included thesequence of steps necessary to complete the lab. Some examples from the unstructured ControlSystems labs included: • “Probably one of the better labs I’ve had with the amount of equipment and
. Page 24.362.2The process of solving a mechanical engineering problem has three components: problemdefinition, developing a sketch, and introduction of the equation[4, 5]. Educators developed andimplemented simulations, animations; set up remote laboratories; and recorded videos to conveythis process – and its components – effectively in on-line settings. For example, virtual andremote laboratories developed for different courses around the world – including virtuallaboratory for teaching robotics[6]; virtual learning environment for the laboratory component ofmechanisms and machine dynamics course[7, 8]; remote laboratory for circuit theory, sensortechnology, and oscilloscope and function generator course[9]; and instrumentation platform
laboratory experience as first semesterfreshmen in a three credit electrical systems course with a weekly laboratory component. Thisgoal of this course is to introduce a wide variety of electrical components and their application toelectrical circuits and systems. Teaching and learning is accomplished through two fifty-minutelecture periods and a one hundred minute laboratory period each week for fifteen weeks.Laboratory exercises complement lecture topics and include the investigation of the behavior ofseries, parallel, and combination resistive circuits, diodes, solar cells, relays, motors, capacitors,inductors, transformers, and operational amplifiers. Traditionally, students have been asked towrite seven to ten formal lab reports throughout the
Multisim and Mathsoft Mathcad into a Digital Communication Technology Curriculum XXX NAME HERE XXX XXX PROGRAM NAME HERE XXX XXX DEPT. NAME HERE XXX XXX UNIVERSITY NAME HERE XXX XXX CITY STATE POSTAL HERE XXXAbstractTechnology program texts that seek to teach digital communication fundamentals follow basicdevelopments that can be modeled in laboratory classes using computer-based electronicslaboratory simulators and computer-based symbolic mathematics systems. For technologyprograms, this is particularly important as the laboratory work reinforces foundational datacommunication
101 communications modules, and an end of semester practicalapplication project. This hybrid solution allows for a relatively low-cost and flexible datacommunications laboratory experience. This paper presents an overview of the experiments thathave been developed for a data communication course, and discusses the main challenges andteaching methods that the author has used to encourage student’s active learning andengagement. Assessment data indicates that there was improvement in achieving the studentlearning outcomes for the course as a result of the introduction of the new hybrid laboratoryexperiments and the teaching methods used.1. IntroductionNowadays, modern technologies are interdisciplinary and often require knowledge of
knowledge in power areas, as well as studentsfrom another universities and colleges pursuing power education. Concept of virtual laboratory isalso introduced here and provides addition flexibility in the class’s offering strategies. Due to therapid changes in the technological world, faculty involved in teaching the proposed courses mustbe informed of advances in technology currently used in the industry. On the other hand,industry wants to have qualified and well-educated employees who are ready to implement theirknowledge on day one of their employment. As a result, the initiative of power engineeringcurriculum development described in this paper is industry-driven.IntroductionMany electrical engineering technology programs have already started
allow the students to apply and validate the conceptslearned in the lectures. Moreover, the course also focused on reinforcing relevant foundationalconcepts of the embedded systems along with their different hardware architecture.Table 1 illustrates the four learning objectives of the course and their associated Bloom’staxonomy. To achieve these learning objectives, different active teaching and learningtechniques along with modified conventional lectures and hands-on laboratory activities wereused. In addition to the assignments, and two examinations (1 mid-term and 1 final), the classproject was also important aspects of the class. Table 2 describes the grading criteria of thecourse.A key thrust in the modification of the course material was
NDT applications and automated thermocouple welder.The laboratory- and project-based instruction will help provide a strong background in AppliedEngineering Technology to fill important roles in industry in the future. It will also stimulate andinstitutionalize innovative developments and will create a model for leveraging high-endinstrumentation in undergraduate education.4. Bibliography 1. R.M Felder and R. Brent. The Intellectual development of Science and Engineering students. Part 2: Teaching to Promote Growth. Journal of Engineering Education. Vol. 93, No. 4, p. 279, 2004. 2. Workforce 2002: Measuring what matters. The Reinvestment Fund. October 2002. 3. V. Genis, D. Spang, A. Genis, T. Midora. Development of NDE Laboratory for
couple of issues that needed to be addressed. First,teaching AC before DC in ENTC 210 was confusing for the students since the textbook coversthe DC material first. Second, the review of circuit analysis techniques scheduled for thebeginning of the second course took much longer than anticipated since there was a substantialamount of material to review. Student feedback also indicated a need for more problem solvingexamples and experience before they were ready to apply the circuit analysis techniques taughtin the first course to the more complex topics introduced in the follow-on course. Third, thearrangement for laboratories became an issue: the students did the DC experiments, but did notfinish all of the AC experiments in the first course
Symposium (NAPS), 2009 , vol., no., pp.1,8, 4-6 Oct. 20098. Kezunovic, M.; Abur, A.; Huang, G.; Bose, A.; Tomsovic, K., "The role of digital modeling and simulation in power engineering education," Power Systems, IEEE Transactions on , vol.19, no.1, pp.64,72, Feb. 20049. Bloom, Benjamin S., et al. "Taxonomy of educational objectives: Handbook I: Cognitive domain." New York: David McKay 19 (1956): 56.10. Stice, James E. "Learning how to think: Being earnest is important, but it's not enough." New directions for teaching and learning 1987.30 (1987): 93-99.11. Feisel, Lyle D., and Albert J. Rosa. "The role of the laboratory in undergraduate engineering education." Journal of Engineering Education 94.1 (2005): 121-130.12. Karady, George
Prototyping CourseAbstractManufacturing and Industrial Technology (MIT) is one of the well-known majors at the Collegeof Engineering of Tennessee Tech University (TTU) located in Cookeville, TN. MIT studentsgraduate with a BS in Industrial Technology and take 121 credit-hour coursework to completetheir degrees.During the Fall 2007 semester MIT4450--Rapid Prototyping course has been re-structured tooffer fully online laboratory component for students’ practice. Students were able to prototypetheir parts through remotely accessible Rapid Prototyping Laboratory.Web-enhanced MIT4450 course students were also able to interact with students in WesternNevada College and prototype joint project parts with the campus engineering students. AnotherK-12 school
custom algorithms were necessary to handledifferent situations such as the wall contour changing suddenly and the robot needed to performa sharp 90 degree turn to the left or right. Another problem was the interference to theaccelerometers when the Zumo robot rapidly changed its movement. If not careful, theaccelerometers could falsely detect an angle as high as 20 degrees.Conclusions and future workThis paper discusses a case study where a part of the research project was used as capstone stoneproject and a part of the capstone project was used as laboratory material and a course project ina control systems course. It worked well for all three areas: teaching the control systems coursewith real-world problems; integrating control systems course
manydifferent approaches proposed to improve statistics curriculum for engineering students. Bartonet al3 developed a laboratory-based statistics curriculum. Standridge et al25 did similar work.Bryce used data collected by students in his introductory engineering statistics course4. Levine etal16 used Microsoft Excel and MINITAB in their book to teach applied statistics to engineers andscientists. Zhan et al30 proposed to apply statistics in several courses in the curriculum instead ofhaving a separate applied statistics course within the curriculum. They found that applyingspecific statistical analysis methods in appropriate courses was an effective way for students tolearn to use statistics.Based on these findings, several laboratory exercises were
Signal Processing Applied to Image Processing. He is a member of ASEE and senior member of IEEE.Chandra Sekhar, Purdue University Calumet CHANDRA R. SEKHAR is a member of the faculty of the Electrical and Computer Engineering Technology at Purdue University Calumet. Professor Sekhar earned a Bachelor’s Degree in Chemistry from the University of Madras (India), a Diploma in Instrumentation from Madras Institute of Technology and Master’s Degree in Electrical Engineering from University of Pennsylvania. Professor Sekhar’s primary teaching and research focus is in the areas of Biomedical and Process Control Instrumentation and Clinical Engineering.Essaid Bouktache, Purdue University Calumet
light. This lab could serve as a Page 12.113.4“pilot” test case for this venue. If it were to fail, there would be no great loss in dollars forinfrastructure development. However, if it were to be successful, a larger space would need to befound and remodeled to fit this unique new classroom/laboratory application.Course Popularity GrowsThe courses (two different ones that had been developed) were run in this space for about a yearas day program courses. Having taught many other courses, the instructor, Professor Tapper, hada great deal of prior experience teaching both lecture and laboratory courses, but never had heexperienced anything like
required for undergraduate teaching in Mechanical Engineering andMechanical Engineering Technology that are “student centered” and bring relevance to theclassroom1. The global world we now all live in requires us to provide new innovators to createnew products at a very rapid pace compared to past generations. In forming these new directions,we need to reengineer the laboratory experience. We need to rethink traditional methods tobecome more flexible and challenging to the individual student. If we wish to encourageinnovation, a new method of delivery that is different from the traditional laboratory instructionneeds to be developed.2, 3, 9, 10 Allowing the student to use higher order learning which includesproblem development, experimental
wireless sensor networks, intelligent agents, agent-based manufacturing scheduling, systems control and automation, distributed control of holonic systems and integrated manufacturing, agile manufacturing, virtual reality and remote laboratory applications in edu- cation. He has authored or co-authored various journal and conference publications in these areas. Mert Bal is currently the Chair and Associate Professor at the Miami University, Department of Engineering Technology, Ohio, United States of America. American c Society for Engineering Education, 2021 Developing Robotics Engineering Technology Program to Address the Workforce Skills Gaps in
this paper is organized as follows: Section 2 discusses course development anddescribes the context, course objectives, references, and laboratory exercises. Section 3 presentsour teaching experiences and reflections and, finally, Section 4 presents conclusions.2. Course DevelopmentA. Context and ObjectivesWith the exception of this new course, there are a few existing courses in the ECET curriculumpertinent to communication techniques and networking. They include Electronic Communications,Digital Communications, and RF Communications together with Computer Networks and a threecourse sequence in Telecommunications.The first introduction to communications concepts occurs at the sophomore level in ElectronicCommunications. This course focuses on
Page 22.563.1 c American Society for Engineering Education, 2011 Energy efficiency and sustainability in engineering design curriculumAbstractThe knowledge and skills for the future workforce of an energy efficient industrialsociety are not fully nurtured in our current educational programs. Energy efficiency andinnovative design practices need to be an essential part of the learning experience inundergraduate engineering design programs. Current engineering design curriculum isreformed to teach the theoretical knowledge and hands-on practices in an integratedfashion. To study energy loss and overall energy efficiency of a system and itscomponents, laboratory
state that the number of expectedenergy related green jobs is expected to increase by 11% by 2018, and most of that growth isexpected to be in the environmental or energy related sectors [9-10].Edgar Dale’s cone of learning shows that participating in discussions or other active experiencesmay increase retention of material by up to 90% [11]. Richard Felder and Linda Silvermanrecommend several teaching techniques to address all learning styles, one of which is to providethe students with demonstrations that address sensing and visual learning styles, and hands-onexperiments for students with active learning styles [12]. According to Moore [13], there is adirect correlation between in-class performance, laboratory attendance, and performance
addition, online coursesettings allow students to learn the course materials at their own pace without being forced tofollow the pace of the instructor or the class [4-6].Although online education has its own advantages, the effectiveness of student experience inonline settings compared to in-class settings is questionable. Researchers around the world havebeen studying the effectiveness of online education [7-10]. Traditional in-class setting is in aprofessor-centered learning environment; where the professor teaches the theoretical componentof the course and explains the materials to the students directly within the limited class hours.Also, the practicum component is carried through the hands-on laboratory setting. Theinteraction in this
Concluding RemarksThe combination of lecture topics and laboratory exercises proved to be useful while teaching thecourse. The course was taught for the first time in the Fall of 2009. The students that took thecourse either belong to the mechanical engineering technology or power engineering program. Itwas a required course for the students in the power engineering technology program, but just atechnical elective for the ones in the mechanical engineering technology program.There are several lessons that were learned after teaching the course once. Firstly, the instructorneeds to make sure all registered students have the proper prerequisites to be able to take thecourse. Secondly, the professor should spend some time with the students reviewing
lowcost MC9S12C32 microcontroller. While different from Intel devices, they are excellent devicesto teach the theory and principles of Von Neumann computers. The CPU structure, busstructure, machine code, addressability of data, and so forth remain important topics of earlyclassroom instruction. New to the faculty were the HCS12 assembly code, assembler directives,and the IDE’s support of C-language support and mixed coding support.Students are taught the use and format of assembly instructions. They are also taught the use ofthe CodeWarrior IDE which is used to write assembly programs, compile and debug them, anddownload them into the microcontroller. These objectives are achieved by a series of lecturesthat are followed by laboratory
electronics, and optical/wireless networking systems. He has designed several models of high frequency oscilloscopes and other electronic test and measuring instruments as an entrepreneur. He has delivered invited short courses in Penang, Malaysia and Singapore. He is also the author of a textbook in power electronics, published by Prentice-Hall, Inc. His other books are, Analog and digital communication laboratory, and First course in Digital Control, published by Creatspace (Amazon). His professional career is equally divided in academia and industry. He has authored several research papers in IEEE journals and conferences. His current research is focused on renewable energy technology and wireless power transfer.Prof