situationequipment being implemented. and to bring that level of insight to our students.The impact of this equipment and curriculum on the The other consideration that has become a concern withstudent's depth of knowledge has been very positive. Not my colleagues and I is recurrent training. This equipmentonly are students now more familiar with data acquisition is used in one unit of instruction in each semester. This isengineering as a discipline, they are able to converse not enough time for the instructor to remain current. Ifintelligently with industry personnel regarding engine something malfunctions, or an upgrade to
requirements for a manufacturing engineering technology curriculum. Thefocus of this paper is on a baccalaureate degree program in the United States for manufacturingengineering technology. First what are the requirements of a program in manufacturingengineering technology? According to ABET each program must have published educationalobjectives. They also must have a program that includes a curriculum that enables graduates toobtain these objectives.1 There is a list of various program outcomes that must be met. Thecurriculum must “provide an integrated educational experience that develops the ability ofgraduates to apply pertinent knowledge to solving problems in the engineering technologyspecialty”1. The assumption is that a program that is
fields, both because of their critical importance in creatingjobs and because of the failure of the American education system in these areas5. The “revised”report states that the situation has worsened. This has prompted many engineering programs todevelop and use innovative strategies that integrate active learning with relevant engineering Proceedings of the 2011 PSW American Society for Engineering Education Zone IV Conference Copyright © 2011, American Society for Engineering Education 171 applications. At Santa Clara University, our core curriculum includes requirements in “ExperientialLearning for Social Justice
helpful for the effort of theConnecticut Nanotechnology Curriculum Committee.1. IntroductionNowadays, the technology advancement has the trend of making things smaller andsmaller. Taking VLSI technology as an example, the feature size of a CMOS transistor isshrunk to deep submicron or nanometer domain. A state-of-the-art Intel CPU chip maycontain millions or even billions of transistors. As the VLSI technology continue tobecome smaller and smaller, people are also considering shrinking the size of mechanicalcomponents (mirrors, gears, pumps, etc.) to microns and integrating them with VLSIcircuits into a system. MEMS and nanotechnology are exactly the enabling technologiesfor this dream. MEMS mainly deal with things in the scale of 1µm~1000µm
process or sequence of processes for producing a part as well as select the most appropriate methods for determining machining conditions. (Estimated to be available by 01/31/03) Machining Processes II This secondary course in machining focuses on the analysis of machining processes. Also in this course, students learn about machining with abrasive wheels, with single-point tools and on CNC machining centers. (Estimated to be available by 01/31/03) Manufacturing Processes I This course introduces a number of processes used to manufacture products. It integrates an understanding of process technology, materials selection, and design intent. (Estimated to be available by 08/31/03) Manufacturing Systems II Beyond the core principles of
research focus is in student en- gagement and retention in engineering and engineering technology education. Contact: kgt5@txstate.eduDr. Shaunna Fultz Smith, Dr. Shaunna Smith is an Assistant Professor of Educational Technology in the Department of Curriculum and Instruction at Texas State University. She holds an Ed.D. in Curriculum & Instruction with an em- phasis on technology integration and art education. Her teaching and research explore how the hands-on use of design-based technologies (e.g. digital fabrication, 3D modeling and printing, computer program- ming, and DIY robotics) can impact multidisciplinary learning that transcends traditional content contexts (e.g. arts-based STEM integration). At her free
presented for conservation of linear mo-mentum to illustrate how the equations are developed. Several examples are included to demon-strate how students solve problems using problem-specific models developed from the generalequations instead of using a “plug-and-chug” approach. Experience with using this approach forteaching and curriculum design is discussed. Results to date indicate that this approach can im-prove student performance and help them develop a more integrated understanding of materialthat has traditionally been taught as unrelated topics.IntroductionImagine for a moment what it is like to be a freshman or sophomore engineering student. After aheavy dose of physics, chemistry, and mathematics, you are excited to finally be taking
Paper ID #15619Saving Pelicans: A STEM Integration UnitSiddika Selcen Guzey, Purdue University, West Lafayette Dr. Guzey is an assistant professor of science education at Purdue University. Her research and teaching focus on integrated STEM Education.Prof. Tamara J. Moore, Purdue University, West Lafayette Tamara J. Moore, Ph.D., is an Associate Professor in the School of Engineering Education and Director of STEM Integration in the INSPIRE Institute at Purdue University. Dr. Moore’s research is centered on the integration of STEM concepts in K-12 and postsecondary classrooms in order to help students make connections
”profession has long been recognized. The Engineering Criteria 2000 established by ABETprovide a clear and pragmatic indication of the benefits of integrating education and practice.Many of the program outcomes and assessments articulated by ABET in Criterion 3 can best bemet through this integration. The College of Engineering at the University of Cincinnati has a long and distinguishedhistory as a leader in engineering education having introduced cooperative engineering educationin 1906, and has maintained a mandatory cooperative education system ever since. Ourundergraduate programs span five academic years and include an average of six co-op quarters.With our cooperative education component, we are in a unique position to offer a five
important element of the newengineering curriculum. Educators have devoted more time to producing an engineer that has notonly the required skills, but also societal and global awareness. Service learning projects connecttraditional classroom teaching with real world needs on a local or even global scale. Projectbased learning stimulates the process of collaborative problem solving, a skill that has beenidentified as important for the future engineer. Additionally, student interest in service learninghas created institutional momentum for integration with traditional subjects. There are other Page 26.601.3benefits to service learning; one can
Information Systems (IS) field is witnessing a rapid change due to the continuousadvances in technology. Consequently, academic institutions need to frequently update the IScurriculum to remain current. An important yet unpopular part of the curriculum is problemsolving and programming. As students encounter difficulties in understanding the concepts ofprogramming, a number of colleges attempt to solve the issue by introducing differentprogramming languages. Currently, Java is the programming language of choice for industry andacademic institutions. However, Java is not easy to learn even for non-novice programmers. Inthis paper, we propose a sequence of IS courses that emphasizes the problem solving componentprior to introducing the syntax and
markets in Ecuador, the fishermen need a small container tocook the fish in so they can be sold for the greatest profit (Year 2 – Cooker Container Problem).This curriculum is presented to take place over two years, but it can be taught as one large unit. Year 1 – Ice/Freezer ProblemThis unit uses context integration for almost every lesson, but overall, the unit has contentintegration as engineering, science, and mathematics objectives were all present. This unit keepsthe engineering design context at the center of the students’ attention throughout; however, theterms “engineering” or “engineering design” are not generally present. The lesson plans tend touse “challenge” or “problem” instead. Table 4 provides an overview of the lessons
processescourses.The work presented in this study was done in an effort to deliver a similar solution for an upper-level course on the Introduction to Computer Integrated Manufacturing and Automation. Thiscourse involves aspects of an automated manufacturing environment, including programmablelogic controllers (PLCs), computer numerical control (CNC), and robotics. Over the last twoyears, a continuing effort has been made to rejuvenate this laboratory with new equipment,including new student PLC trainer stations and their corresponding integration software. Thesesystems were created for students to learn the functions of PLC hardware components, ladderlogic, timer and counter functions, and human-machine interface. The curriculum created aroundthis new
Environmental Resources Engineering at Humboldt State University and a Faculty Research Associate at SERC. She is an alumna of HSU where she received her B.S. degree in Environmental Resources Engineering. She received an M.S. in Energy Policy and Analysis and a Ph.D. in Civil and Environmental Engineering from the University of Wisconsin, Madison. Dr. Cashman currently teaches courses in engineering design, water quality, computational methods and environmental fluid hydraulics. At SERC, Cashman is currently involved in a feasibility study for hydroelectric resources for the Yurok tribe and the H2E3 university curriculum project.Peter Lehman, Humboldt State University
in the design of building systems to have a working knowledge offire protection engineering, so that they can develop effective systems for smoke control inbuildings.In order to integrate fire protection engineering within the mechanical engineering curriculum,several challenges need to be overcome. This paper will focus on how these challenges wereaddressed in a fire protection engineering technical elective currently offered in the Department ofMechanical Engineering at the University of Saskatchewan. The paper will first briefly describethe extent of fire protection engineering courses in Canada, along with the development of thiscourse. The content of this course and the challenges to offering it at this university are thendescribed
, with S-L, students would be more motivated to learn the class subject matter. Theirattitudes towards underserved populations would be affected by their experience in the S-Lproject. Faculty would accept to integrate S-L into their core courses, and students would acceptit as another pedagogical tool. S-L integrated into an existing course would be more efficientthan an intensive add-on course, and S-L would improve recruitment and retention of minoritystudents. Finally, S-L would contribute to meeting the ABET criteria. The research methods sofar have consisted of surveys, interviews and reports. We present here the results of the student
several corecourses in electrical and mechanical engineering, as well as a laboratory course in weldingprinciples and manufacturing operations. Biomedical engineering is being developed as a fifthconcentration, built upon the common core.Part of our approach to the BME concentration includes a special integration of curriculum. Theconcept of curricular integration has been occurring at all levels of education, from primarygrades through graduate school. In the spirit of past academic emphases on “writing across thecurriculum,” “ethics across the curriculum,” “computers across the curriculum,” and “designacross the curriculum,” the approach we have taken is that of introducing “biomedicalengineering across the curriculum.” Specialized materials
Figure 4 – Sample Class DeliverablesConclusionCurriculum mapping can be a worthwhile exercise uniting the faculty and informing eachinstructor on the other elements of the curriculum he or she is not directly involved with. Withthe rapidly progressing state of the construction industry and the incorporation of new methods,techniques, materials, and approaches to managing the construction project, such an exercisebecome necessary on a regular basis (no more than 5-year intervals) to ensure that the program isup-to-date and is meeting the learning objectives for students and expectations of the industry.Faculty involvement and buy-in are integral factors for the success of the implementation of themapping process. Individual faculty preferences
/process design, and processimprovement. The curriculum restructuring involves the integration of previous laboratoryexercises with new exercises on existing equipment and the new equipment using manufacturingphilosophies such as lean, agile, and 5S. The paper will describe the new laboratory curriculumand how the manufacturing systems techniques were utilized to realize significant beneficialrestructuring.Background and MotivationA robotics course as a technical elective and a required course provide upper-level engineeringtechnology students with an interesting class experience within their desired curriculum atRochester Institute of Technology. Allowing students to gain applied knowledge of some of thecurrent robotics equipment is in the
impotence that low results generate. All thisadds up to the fact that researchers frequently made contributions from very distant places towhere most urgent needs.'Corporación Universitaria Minuto de Dios-UNIMINUTO is a higher education institution,whose mission is to provide quality education and serve populations of the lowest socio-economic level. This institutional mission implies that an important percentage of studentshave specific characteristics, including low academic level in mathematics and languageskills. That is the case of engineering students, who have several courses in basic sciences aspart of their academic curriculum. The course called 'Pre-calculus' is part of the curriculumof all engineering programs, and it registers low
laboratories and have since implemented additionalprocess safety focused assignments within the labs such as mandatory weeklyincident/near-miss reporting including focusing on actual risk and possible worst-caserisk of the reported incident [15]. Implementation of more focused safety components toboth improve safety culture and to expose students to process safety terms andexperiences that they will most likely see in industry is an on-going process in thechemical engineering laboratories.ConclusionIncorporating process safety into the chemical engineering undergraduate experiencecan be challenging, given the already-packed curriculum with little room for new topicsor courses. The SafeChE Safety Modules allow instructors to integrate safety
AC 2007-984: ENHANCEMENT OF CHEMICAL ENGINEERINGINTRODUCTORY CURRICULUM THROUGH SERVICE LEARNINGIMPLEMENTATIONLale Yurttas, Texas A&M University Lale Yurttas is a Senior Lecturer and Assistant Department Head in Chemical Engineering Department at Texas A&M University. She chairs Departmental ABET Committee. She also participates in Engineers Without Borders-USA, especially in TAMU Chapter and coordinates service learning activities for the current NSF project. She has 10 years of experience in engineering education and curriculum development.Jennifer Christensen, Texas A&M University Jennifer Christensen is a junior in Artie McFerrin Department of Chemical Engineering. She is an
; Shannon, G. J. (2013). The Flipped Classroom: An Opportunity To Engage Millennial Students Through Active Learning Strategies. Journal of Family & Consumer Sciences, 105(2), 44-49.Rohr, L., & Costello, J. (2015). Student Perceptions of Twitters' Effectiveness for Assessment in a Large Enrollment Online Course. Online Learning, 19(4).Rohr, L. E., Costello, J., & Hawkins, T. (2015). Design Considerations for Integrating Twitter into an Online Course. International Review of Research in Open and Distributed Learning, 16(4), 241-249.Sarkar, N., Ford, W., & Manzo, C. (2015). Engaging Students with Technology in an Asynchronous Learning Environment. HETS Online Journal, 6, 34-50.Savery, J. R
Math Usage by Practicing Engineers: What does it mean to Curriculum Planners? Mike Ellis, Brian Williams, Habib Sadid, Ken W. Bosworth, and Larry Stout Idaho State UniversityAbstractEngineering programs are constantly assessing the material required to earn an engineeringdegree. This assessment leads to squeezing in additional courses, often at the expense ofrequiring additional credits beyond that for a typical Bachelors degree. The common practice ofincluding new material while not changing what already exists is pushing the number of requiredcredits for an engineering degree in excess of what should be expected. A fundamental questionnot typically
infrastructure with physicalsystems to foster scientific and educational efforts in related fields. Along with the technologytrend, as well as in response to the job market need to better prepare STEM students6, the authorssuccessfully obtained several external grants to promote the integration of cyber space withphysical laboratories. Engineering technologists are more practically oriented in implementation than that ofscientists and engineers. Accordingly, Engineering Technology (ET) program features hands-onskills training to assist students in solving production and system implementation problems. Withindustry transition towards technology-intensive production processes and the adoption ofadvanced manufacturing methods7,8, it proposes an urgent
demonstrate in-class the effect of thermodynamic assumptions on equilibriacalculations.This paper describes an expanded use of laptop computers in the chemical engineeringcurriculum at Rose-Hulman. The new use of laptops has been made possible by the developmentof a CD-ROM that has discussion/homework situations for most of the required chemicalengineering courses taken from a refinery saturate gas plant. This CD-ROM can be used as aresource to provide an integrating link between subjects regardless of the textbook orteaching method used in any particular course. Marathon Oil Company has made availableto Rose-Hulman the engineering record books for the final design of a saturate gas plantdesigned by Bechtel Engineering Co. and constructed at the
Session 2209 CREATION OF A BIOETHICS COURSE FOR THE UNDERGRADUATE BIOMEDICAL ENGINEERING CURRICULUM E. Mowry, J. Collins, S. Brophy Department of Biomedical Engineering, Vanderbilt University, Nashville, TN 37235Abstract “Engineering programs must demonstrate that their graduates have…an understanding ofprofessional and ethical responsibility….1” To address this need, we are creating anundergraduate biomedical engineering (BME) ethics course, which serves to raise awareness instudents and better prepare them for careers in medicine, research, and engineering. Theprinciples and methodologies of
;· Teach students to apply engineering principles in the life and medical sciences;· Develop their critical problem solving skills in bioengineering;· Develop their ability to communicate effectively and participate in interdisciplinary teams;· Expose students to a broad education that prepares them for diverse careers.Graduates will be prepared to pursue further education in graduate school or medical school orbegin a career in the biotechnology industry.Bioengineering students follow the typical engineering curriculum during their freshman yearwith two semesters of calculus, two semesters of general chemistry, an introductoryprogramming course and two semesters of physics. The introduction of the students to thefundamentals of life sciences
Session 2533 New Three-Level Undergraduate Curriculum for Teaching Electrical Energy Subjects Herbert L. Hess, Joseph D. Law, Brian K. Johnson University of IdahoAbstractA new approach to an electric power and energy curriculum is presented. Student interestsappear in three categories: those who take only one introductory course for breadth, those whowant the greatest available depth of study in power and energy topics, and those who will studyanother area of electrical engineering in depth but find understanding power and energy topicshelpful to their anticipated
Session 2558 Experiences Using Undergraduate Students to Develop Information Technology Course Curriculum Stephen R. Renshaw, Aaron Dockter, C. Richard G. Helps, Joseph J. Ekstrom Information Technology, Brigham Young UniversityAbstractUndergraduate students have been used to help develop the course curriculum in variousInformation Technology courses ranging from beginning digital electronics to networking. Thisdevelopment has taken various forms including directed production of lab modules, production ofsupplemental material, and researching an in-depth subject then teaching it to peers.The