mostly cover circuits with resistive elements. A few examples of circuitsinvolving capacitors and non-resistive elements (e.g. integrators and differentiators) are alsogiven as examples of signal shaping circuits.In the laboratory, operational amplifiers are used to amplify signals in two practical applications.In the first experiment, students amplify the signals from an ultrasonic emitter/receive pair. Theobjective of the experiment is to measure the speed of sound by measuring the time delaybetween the original and reflected signals. In the second experiment, an operational amplifier isused to amplify the signal from an infrared emitter/detector pair used to measure the speed of avariable speed DC motor. Both the motor and the emitter
Paper ID #23324Exploring Mind Maps for Assessment in an Introductory Chemical Engineer-ing CourseProf. Joshua A Enszer, University of Delaware Prof. Joshua Enszer is an assistant professor in Chemical and Biomolecular Engineering at the Uni- versity of Delaware. He has taught core and elective courses across the curriculum, from introduction to engineering science and material and energy balances to process control, capstone design, and math- ematical modeling of chemical and environmental systems. His research interests include technology and learning in various incarnations: electronic portfolios as a means for assessment
constraint is to introduce sustainablematerial concepts into an existing core course while maintaining the original course objectives.Therefore, the aim of the proposed study is to integrate sustainability concepts in the ConstructionMaterials course through an innovative term project (called as Green Concrete) dealing with thecreative use of recycled materials in concrete. Green Concrete project covers one of the majortopics of sustainable construction which is building infrastructure using materials which canreduce the impact on the environment.Background of Sustainable ConstructionSustainable construction indicates that buildings are well designed, constructed, operated and thendemolished in an environmentally friendly and energy efficient manner
Paper ID #17833Integral Concept and Decision Making: Do the STEM Majors Know Whento Use Numerical Methods for Integral Approximation?Dr. Emre Tokgoz, Quinnipiac University Emre Tokgoz is currently an Assistant Professor of Industrial Engineering at Quinnipiac University. He completed a Ph.D. in Mathematics and another Ph.D. in Industrial and Systems Engineering at the Univer- sity of Oklahoma. His pedagogical research interest includes technology and calculus education of STEM majors. He worked on several IRB approved pedagogical studies to observe undergraduate and graduate mathematics and engineering students’ calculus
AC 2012-5087: ARTICULATION OF CURRICULUM ACROSS UNIVER-SITIES, COMMUNITY COLLEGES, AND ADULT AND CAREER CEN-TERS TO MEET THE EMERGING INDUSTRY REQUIREMENTS IN CLEANAND ALTERNATIVE ENERGYMs. Margaret Anna Traband, University of Toledo Margaret Anna Traband, M.B.A., is the Grant Director for the National Science Foundation Partnership for Innovation grant entitled An Innovative Model for a New Advanced Energy Workforce. Traband earned a bachelor’s of arts from Bowling Green State University and her master’s of business adminis- tration in entrepreneurship and technology commercialization from the University of Toledo. Previously, Traband worked as the Program Manager for the University Clean Energy Alliance of Ohio (UCEAO
Prov-ost’s Office to find the areas where we could extend deadlines – we received an additional monthto complete new course and new program proposals – and where we needed permission to bendrules or do things out of order, such as admitting students into programs that did not yet officiallyexist. Opening a dialog with the ACC, Registrar’s Office, and Provost’s Office early and workingwith them to find the places where there was flexibility in the system allowed us to stay on trackand maintain the President’s goal of having engineering graduates in spring 2016.The final important part of the curricular planning and implementation was to support the peoplewho had to do the work of the full curriculum development to allow us to teach the courses
abstract. As a result,both curricula are being developed as project-based curricula that offer plenty of hands-on andexperiential learning opportunities.III. Curriculum DevelopmentThe establishment of the Alternate Energy Innovation Center (AIEC) on the SPSU campusprovided an opportunity for ET faculty to integrate their applied research work into theirteaching. A number of ECET and MET faculty have been engaged in projects through theAEIC. In the initial stages, the center focused on research into Solar Energy Systems and isequipped with roof-mounted solar panels with solar tracking equipment. The scope of work hasrecently been expanded to include the study of Wind Energy Systems, Fuel Cell Technology,Power Electronics and Applications, Energy
specificcriteria) for direct assessment of these outcomes.IntroductionIn an Electrical/Computer Engineering Technology degree, there are many classes that usemicroprocessors/microcontrollers as part of their curriculum. The format for these classes aresimilar (in curriculum) in that their end goal is to teach ‘C’ or ‘C++’ programming, as well asembedded hardware and applications. Most computer courses employ a large amount of hands-on lab material and selecting a proper embedded processor can greatly improve theoutcome/success of the course. In general, the preference is to use a processor that has:• Wide industry acceptance (usage after graduation). This allows the students to leverage their knowledge into better/more advanced job positions
. student in Engineering Education at Virginia Tech (VT). Benitez seeks to understand how to best instruct and assess ethical reasoning of engineering practices and engineering responsibilities, including wildlife and humanity, in our definitions of public good. c American Society for Engineering Education, 2017 Self-Authorship and Reflective Practice in an Innovation MinorAbstract This project describes a minor in Innovation that is being introduced in an engineeringdepartment as a part of a new general education curriculum initiative. The minor connects threeexisting courses from different colleges to form the core course sequence. The theories of self-authorship1 and reflective practice 2
. Rice-EWB is associated with the CEE department, and has worked closely with thedepartment in its endeavors. Rice-EWB has become a major part of the department’s long-termcommitment to create an innovative, hands-on, design based, team oriented curriculum thatprepares students for the challenges of the next century. The department has worked to providethe infrastructure needed to operate Rice-EWB and to integrate Rice-EWB into its curriculum sothat the opportunities made available through Rice-EWB can be augmented by the department’sresources and faculty. The CEE department has supported the work of Rice-EWB in manyways. First, the CEE department has been the custodian and guardian of all of Rice-EWB’sfunds, and it has transferred its non
this project-centered approach, the Engineering Graphics curriculum has beenorganized into a set of learning modules with specific educational outcomes. Table 1 lists thecurrent modularization scheme and learning outcomes. It consists of ten units that serve asindividual student projects, plus an integrated PROCEED project that is conducted at theconclusion of the course. With this modularization scheme, the ten individual units trainstudents to develop computer skills and abilities that can be later used in the larger team project.These modern course outcomes, as outlined in Table 1, were fully implemented in the Fall 2002semester using some preliminary computer graphics laboratory notes written by our group10.The initial modules stress
Page 12.1381.2to understand the developmental model adopted by the industrial engineering faculty.Developmental TheoryA growing body of research suggests that in order to help students develop more complexthinking skills one needs to provide a curriculum that is challenging while simultaneouslyproviding the foundational support necessary for student success. While some researchers focuson an adaptive curriculum based on a student’s learning preference curve or typology3,4, otherssuggest that a curriculum focused on the social aspects of student learning may be moreproductive5-8. Still others suggest that focusing on students’ intellectual development can lead tosignificant learning gains9,10. The Industrial Engineering program seeks to
manipulatives and technology, and inthe integration of reading instruction in mathematics and science content delivery (see:http://mcs.mines.edu/Research/bechtel/new). This is being accomplished by offering cohorts of K-5teachers two, two-week summer workshops on a college campus, over successive summers, inmathematics and science with an energy and renewable energy emphasis. Each cohort consists of ateaching team representing all grade levels, K-5, within a given elementary school. These workshopsare taught by university professors and researchers from a national laboratory. Implementation of workshop activities in the elementary classroom during the academic year isnot left to chance; rather, graduate students directly assist the participating
learning.”While LEAP students were always encouraged to participate in internships, only several studentsdid because internships did not offer credit and students had difficulty fitting them into theirschedules. In the last two years of the program, however, internships were integrated into theacademic curriculum as an elective course for all four degree programs. This action was taken toemphasize the importance of internships and to encourage student participation. Internships arenow required for scholarship recipients in UVU’s new S-STEM program. Faculty mentors willencourage S-STEM participants to plan for and carry out an internship, probably in their junioryear. Students will receive credit toward graduation. Most internships are paid at an
path for classes similar to this.Students are exposed to applications of the material instead of collecting and analyzing signalsfor the sole purpose of a class assignment. Students are given flexibility in their experimentaldesigns which allows for creativity and curiosity. By proposing an additional application,students also appreciate how to create value.References[1] T. J. Kriewall and K. Mekemson, “Instilling the Entrepreneurial Mindset IntoEngineering”. The Journal of Engineering Entrepreneurship, vol. 1(1), pp. 5–19, 2010.[2] D. Jamison, “Framework for Integrating Entrepreneurially Minded Learning in Upper LevelCourses,” ASEE National Conference, Columbus OH, 2017.[3] K. Moustaghfir and N.T. Sirca, “Entrepreneurial learning in higher
the interviews are evaluated andused to change curriculum, to acquire new equipment, and to get feedback on the overall Page 11.519.11satisfaction of students with the programs. Graduates of the Structural Analysis and DesignEngineering Technology program uniformly praise the hands-on educational approach anddescribe their lab experience as an important factor in maintaining their interest in the program.The program coordinator and department chair keep close contact with the graduates to find howsoon after graduation they receive employment offers. It is important to observe that 90% of thestudents in the department already work in activities
acquire technical skillsand knowledge both in the classroom and outside.The paper describes the various learning modules developed by the HBCU networks coveringcourses in Electrical and Computer Engineering (ECE) first two years curriculum: Introductionto Electrical Engineering, Electric Circuits and Lab, and Electronic Circuits and Lab... theseactivities were built on the ECP courses that have already been developed, evaluated, andadopted at Howard University and Morgan State University, with an established NationalScience Foundation (NSF) funded Engineering Research Center (ERC) at RenssalaerPolytechnic Institute (RPI).While these courses were developed using the Mobile studio, the newECP based learning modules have been developed using the
Conference & Exposition Copyright © 2002, American Society for Engineering Educationthe typical salary for a government employee is about $15 per month, while an engineer caneasily make $150 per month working for an NGO.II. CrriculumThe faculty of Engineering in Herat is following the same curriculum that was designed for theFaculty of Engineering in Kabul in 1972. The only difference is the addition of some non-technical subjects and offering of a five-year program in four years.The ministry of Higher Education in Afghanistan recognizes the program and the President ofHerat University signs on the diplomas. The curriculum in its current form is too heavy and somecourses are not offered in the right sequence. In order to
, activities relating to water treatment and water pollution, and informationregarding sands, clays, and silts relating to underground piping/construction. It is a cheap andeffective system of interactive learning that can be used widely and integrated into schoolingcurriculums without issue. Gender equity is an important dilemma many are faced with today,and WaterMobile tasks itself with destroying barriers such as these and aims to give betterrepresentation to promote diversity and leadership in the workforce.All correlated activities in WaterMobile line up with the New Jersey Core Curriculum ContentStandards in the STEM fields, making it easy to follow and apply. One experiment created todemonstrate the applications of forces of water is named
SustainableDevelopment (2005-2014)27. However, the field has been gaining increased importance andextended application in recent years, as reflected in some updated reviews28-30.Integration of green chemical engineering with traditional chemical engineeringThe implementation of sustainability into the engineering curriculum generally starts with theintroduction of some sustainability related topics in existing courses, to be followed potentiallyby an entire module or course, and then it may evolve into a full program26. At our institution,the University of Pittsburgh, we have experienced a fast development along this pattern. There isnow a wide spread of over one hundred sustainability focused or sustainability related coursesacross the various disciplines
audiences across both continents. Thiscollaboration offered him the opportunity to further develop his pedagogical and solar energyknowledge as he designed these modules. The instructor contributed expertise in solar energyand educational methods. This collaboration also allowed the faculty member an opportunity todevelop curriculum that integrates a global component for US students to develop their globalengineering mindset without travelling. The instructor’s future students in the USA have anopportunity to learn about the context of South Sudan which few may have the opportunity tovisit. In this work in progress, we will describe the context of South Sudan, the independentstudy course, the modules designed, lessons learned in doing this work
AC 2008-2556: A COMPREHENSIVE LABORATORY CURRICULUM IN SINGLEDEGREE OF FREEDOM (S-D-F) VIBRATIONS; PHASE I – WORKING MODELEXPERIMENTSAlexander Colletti, The College of New Jersey Alexander Colletti Alex Colletti is a senior mechanical engineering major at The College of New Jersey (TCNJ). He has been involved in TCNJ’s Mini-Baja SAE project and Society of Automotive Engineers (where he was secretary). He is also a member of the American Society of Mechanical Engineers (ASME). After graduation Alex plans to go on to graduate school to obtain a PhD in the field of energy and heat transfer. He is working on the forced response system of the apparatus.Joseph Monaghan, The College of New Jersey
is the Engineering &Science curriculum director for the program.The University of Detroit Mercy also offers a Master of Engineering Management (MEM)degree; it is a hybrid degree offered by the College of Business Administration and the Collegeof Engineering and Science. The program integrates technical and management studies toproduce graduates capable of assuming leadership roles in engineering management.The primary author was invited to teach and/or develop an elective for the MEM program.Because of his affinity for systems architecture and systems engineering (as well as hispassionate belief that these two disciplines are both critical and often neglected), he proposed ablended class that covered both topics in adequate depth for the
the students were exposed toin the three different groups. It also discusses recommendations for future changes that could bedone to better include equity discussions and assessments in the curriculum. The paper also stateshow this could be modified for any undergraduate program. IntroductionEngineers play an essential and unique position in the society as their influence over resources willhave long-term consequences on the communities they service. They are uniquely placed toaddress systemic obstacles, but to do so, they need to have a nuanced grasp of social aspects. Toaccomplish this, engineering education must include topics that investigate equality, diversity, andinclusion. (EDI). Students will be able to gain a grasp of how their
closely paralleled one or more of the topics covered on the course syllabus. Inaddition, their chosen topic had to be congruous with the new millennium conference theme.Students were encouraged to research past, present, and future applications of their chosen topic.The key idea was to have students explore a topic(s) in more depth than would be covered inclass, thus making them the “experts.” Each student in the AU course wrote a single-authorpaper.The theme for papers prepared for the Pittsburgh conference was a little different. Given thatPitt uses an integrated curriculum approach for their freshman courses, students were told thatwhere possible, their papers should relate to topics covered in the fall or spring semester of theirPhysics
sciences (economics, policy, and management) to ensure successfulcareer opportunities and growth within energy-related industries, government agencies, andacademia. The courses are structured to enable students to understand engineering fundamentals andapply the knowledge to solve problems in the production, processing, storage, distribution, andutilization of energy using multiple techniques as synthesis, analysis, design and case studies.Inquiry-based teaching methods and lab experiences are emphasized. The faculty research andscholarly activities are integrated into the curriculum. The program is designed to train studentsto be lifelong learners, problem solvers, and energy industry leaders. The educationalopportunities are sufficiently
buildingprogressed fiscal concerns caused a reduction in the number of Living-Building Laboratorycomponents that were actually funded ultimately resulting in little of the original conceptexisting in the completed building. A grant through the National Science Foundation (NSF)Course, Curriculum, and Laboratory Improvement program (CCLI) was obtained in order torestore some of the benefits of the Living-Building Laboratory concept and this paper describesthe use of some of this newly available building data in a thermodynamics laboratory exercise.Introduction to the Living-Building Laboratory ConceptThe idea of using the academic building as a laboratory is an easy concept to grasp. Students inthe sciences (and really all disciplines) should be taught to
and equipment grants to formalize a curriculaaround the captured knowledge. Akbar and Dutta12 address the balance that must be foundbetween research and education that is complicated by the inclusion of both government andindustrial labs. They conclude there is a “synergistic benefit of such an approach and reinforce aprevalent belief that innovation in research can help enrich education.” Finally Newberry13developed a missile system design graduate curriculum that strove to balance scientificdevelopment and robust design. He emphasized that “Design and judgment are the essence ofengineering; they are the primary factors that differentiate engineering from science.” This is alesson that should not be forgotten even as we work hard to advance
market share, and improved profitability.According to a report by the Conference Board, a business membership organization, “Amajority of large U.S. firms have used the criteria of the Malcolm Baldrige National QualityAward for self-improvement, and the evidence suggests a long-term link between use of theBaldrige criteria and improved business performance.”Integration of the Baldrige Criteria Performance Excellence into the Capstone DesignExperience:Initial discussions between the RICPE and the SECCM focused on whether or not integration ofthe Baldrige National Quality Program into the senior capstone design curriculum wasappropriate and would enhance the design experience. Two factors tilted the decision in favor ofintegration. First, the
the socio-cognitive aspects of the flipped and blended learning environments. c American Society for Engineering Education, 2019 Student perceptions of interpersonal skills intertwined in an engineering classroom By: Carmen Carrion MS & Joe LeDoux PhDIntroduction: This research paper describes the study about teaching interpersonal skills in ananalytical engineering course and how students from this course actually experienced theinterpersonal skills curriculum. In the field of engineering, model-based reasoning and theemployment of engineering judgment are two of the most important practices that are critical forthe success of practicing engineers