employed at the end of an assignment,reflection questions encourage students to recognize what they learned, identify errors, andconsider different choices they might make in the future. Throughout an entire course, students’writings become an artifact of the changes and growth that accompany learning and provideinstructors with a rare insight into students’ learning processes.Our team is currently investigating how intermingled writing and coding can improve theprocess of learning to program. We have incorporated WTL strategies into introductorycomputer programming laboratory assignments and are comparing student work from thoselaboratories with student work from traditional laboratories. In order to minimize additionalwork for the WTL students
physiology. Dr. Quick promotes student learning and success through incorporating evidence based instructional approaches into both the large lecture and laboratory courses, including active learning techniques that foster student interaction. c American Society for Engineering Education, 2016 Enhancing STEM Education at Oregon State University – Year 2ESTEME@OSU and the Theory of ChangeIn this paper, we update progress through the second year of the NSF WIDER fundedESTEME@OSU Project. The ESTEME@OSU Project is summarized below, and more detailcan be found elsewhere.1 ESTEME@OSU seeks to catalyze broad institutional change throughscaling and cross-pollination of efforts utilizing two evidence-based
curricula, surveying 950 employers to determine their educationand training needs in the photonics area, delivering outreach events to 8000+ K-12 studentsinvolving hands-on exploration of lasers and optics, providing professional development tofaculty, participating in training and subsequently developing a recruiting and retention plan forfemales and minorities into the photonics technology field, and giving presentations about bestpractices in photonics technician education at several conferences. Next steps include setting upa laser assisted manufacturing laboratory at Indian Hills Community College and developing theassociated curriculum to serve as a model for colleges in the Midwest interested in teaching thisadvanced manufacturing technology
High Poverty Schools – Dept. of Education (Lisetti) • Cyber-Enabled Technologies – NSF (Pissinou) • $1M industry endowment for technology training of high- school teachersRanu Jung, March 30, 2016 At-Scale Laboratory for Implementing and Evaluating Strategies to Propel Students from Populations Underrepresented in STEM • Meet a need in the community: Engage and Enhance Awareness • Enhance K-12 in-reach/outreach: Build Competency through Knowledge Dissemination • Improve Education: Infuse College Curriculum into High Schools; Educate Teachers Engaging
California, Davis and works on designing analog inte- grated circuits. As a development teaching assistant, he works on designing modern laboratory materials for undergraduate electrical engineering students. In his spare time, he enjoys working on automating solutions for physical problems using different programming languages. c American Society for Engineering Education, 2017 A New Application-Oriented Electronic Circuits Course for non-Electrical Engineering Students Using Arduino and NI VirtualBenchI. IntroductionTeaching circuits to non-electrical engineering students has always been a challenging task since many ofthese students find the circuit theory
to ensure that all students have a common knowledgebase in engineering, plant sciences, and data sciences, no matter their background. The goal is toget all students communicating in the same language. The course “Fundamentals of PredictivePlant Phenomics” was developed to meet this challenge. The course planning took nearly oneyear and incorporated input from faculty with various disciplinary backgrounds. The actualcourse is coordinated by an engineering faculty member and taught through a series of guestlecturers covering various plant science, data science, and engineering topics over a 15-weekperiod. In addition to the three 50-minute lectures per week, a 3-hour laboratory each weekprovides an experiential learning opportunity where
technical graduates cannot keeppace with industrial demand. Educators struggle with three main issues; increasing the pipelineof students into our programs, providing the curriculum needed for tomorrows technicalworkforce, and the affordability of technical education with shrinking funding budgets. AtNorthern Illinois University (NIU), the solution to these and other associated issues is throughwork with industry as a partner and stakeholder.The NIU Department of Technology works with industry partners to develop and deliverprograms meeting the needs of our stakeholders. Through direct contact, we work with regionalcompanies to attract students and develop laboratories, curriculum, and internships, thus,providing cutting edge technical and problem
Paper ID #7335Curriculum Exchange: ”The Art of Engineering”: a Four-Year Project-BasedHigh School CurriculumDr. Sandra Hull Seale, UCSB Dr. Seale earned the B.S.E. in Civil Engineering from Princeton University in 1981, the S.M. in Civil En- gineering from MIT in 1983, and the Ph.D. in Civil Engineering from MIT in 1985. Dr. Seale is currently working as the Project Scientist and Outreach Coordinator for the Seismology Research Laboratory at UC Santa Barbara.Mr. Amir Muhsin Abo-Shaeer, Dos Pueblos Engineering Academy
). Thesecourses complement the rich curriculum presently offered in the Department of ElectricalEngineering at PVAMU. A new high-speed (broadband) access technologies laboratory has alsobeen developed to support both instruction and research. This helps to create an academicinstructional and research infrastructure for broadband communication systems-based projects,testing and research.1. IntroductionPrairie View A & M University (PVAMU) attaches much importance to the training of studentslike many other universities to meet the needs of future technology trends. As a result of thetechnology growth shown in the area of broadband communications, PVAMU ElectricalEngineering Department has placed much emphasis on trying to develop curriculum and
levelsof the taxonomy: fundamental, intermediate and advanced. The incremental growth ofengineering problem-solving skills, as illustrated by the taxonomy and the CPI, is also applicableto other STEM disciplines: science, technology and mathematics. The CPI served as theframework for developing an assessment instrument with measurable outcomes that enablescoring, as well as placing the student at the appropriate level within the taxonomy. Further, asample laboratory assignment is presented to demonstrate the positive impact of hands-onexperiences on the student’s conceptual understanding and problem-solving skills. Initial resultsof a test series given to engineering juniors are reported. These results indicate the effectivenessof the developed
. However, the combination of a statewide reduction in credit hours and thedifficulty in students determining the application of various mathematic and engineeringprocesses resulted in a new combined focus for this course. Because of need to develop a perspective of understand of statistics, multipleexposures to the topics is useful. In recent interviews with seniors, they have agreed thatthey have taken a good course in statistics, but it was difficult to relate to “realapplications”. Although they used the concepts in the BME laboratory course, it tookextensive time to really see what to apply. They expressed a desire to see some of thematerial utilized earlier in their courses. The new BME 271 course will provide students with some
Session Number 3159 Modernizing a Legacy Wind Tunnel: Hanging Onto and Letting Go of the Past Thomas Hannigan, Keith Koenig, Bryan Gassaway, Viva Austin Department of Aerospace Engineering, Mississippi State UniversityAbstractA medium-scale, closed-circuit subsonic wind tunnel facility used for undergraduateaerospace engineering laboratory experimentation and research represents a substantialinvestment in resources. The control systems and data acquisition systems must evolve sothat the age of the facility does not prejudice researchers serious about their academicendeavors. The evolution of such a system is
research projects, and integrating researchand STEM education. This paper will report the progress that we have made so far in all fourareas.Through the TALENT-21 Program, a facility has been established for undergraduate researchtraining in the geophysical and environmental sciences. The facility includes a Seismic PhysicalModeling Laboratory for earth subsurface modeling and simulated measurements, and a SeismicData Processing Laboratory for data analysis and visualization. Planned for the research trainingprogram is a three-pronged approach of generating (1) real-world seismic data by seismic fieldsurveys, (2) physical modeled data through the Seismic Physical Modeling Laboratories, and (3)computer simulated data through mathematical modeling
and image processing. One of thedriving forces behind DSP is the overwhelming interest in real-time processing as, for example,in high definition television, spread spectrum communications, and speech recognition systems.It is clear that DSP is instrumental in conveying the principles of many topics covered inelectrical engineering particularly with respect to modeling and simulation. The objective of this paper is to describe a multi-course sequence which employs DSP atmany levels of the undergraduate curriculum for the purpose of enabling students to visualize,test, and implement concepts introduced in the classroom. This is accomplished through thecompletion of special projects and laboratory exercises in multiple courses with the goal
already been devoted toward learning fromremote locations [6–24] and multiple, or hybrid, instruction techniques [25–28, 28–42]. Newremote learning techniques include development of advanced teleconferencing techniques [6, 8,11], handheld learning devices [9], and remote hands-on laboratories [10,13,14,16,17], to name afew. Hybrid learning has distinct advantages for students with increased flexibility of their studies[30, 37] while getting the same results as with face-to-face learning [31].2 Educational VideosFor the freshman year, we will be using multiple sources of educational videos: those produced in-house to elaborate on practices specific to the University of Utah (U of U), and those published by
Antonio (UTSA). He joined UTSA in 2003 where he founded Software Communication and Navigation Systems Laboratory. He re- ceived the M.Sc. degree in radio-electronics from the Moscow Institute of Physics and Technology in 1987 and Ph.D. degree in electrical engineering from the Tampere University of Technology (TUT), Fin- land, EU, in 1997. From 1999 to 2003, he was a Senior Engineer and Specialist with Nokia Corporation. Prior to joining Nokia in 1999, he was a member of teaching and research staff of TUT. His current re- search interests include digital signal processing algorithms for communication and navigation receivers, positioning methods and mobile applications, and remote labs
Session 1526 MULTIDISCPLINARY CONTROL EXPERIMENTS BASED ON THE PROPORTIONAL-INTEGRAL-DERIVATIVE (PID) CONCEPT Ravi P. Ramachandran, Raul Ordonez, Stephanie Farrell, Zenaida Otero Gephardt and Hong Zhang Faculty of Engineering, Rowan University, Glassboro, New Jersey 08028Abstract - The hallmark of the newly configured Rowan College of Engineering undergraduateprogram is multidisciplinary education with a laboratory emphasis. The development of a newmultidisciplinary control laboratory upholds our hallmark very well. We attempt to address thedemand of industry for acquiring control engineers (1) with a
Page 5.713.1testing numerous prototypes at various stages of the engineering design. There is growing demandfor engineers trained in this area, as many companies engaged in metal forming research are turningtowards virtual forming. Kettering University recently funded a grant proposal to procure ahydraulic press that has adaptive controls allowing experiments in non-circular forming andparametric studies that will facilitate the creation of real forming models for subsequent simulation.Another grant proposal is in preparation stage requesting funds to procure a dedicated high-speedcomputer server and terminals to support the virtual forming laboratory. As mentioned before, theobjective of this paper is to share ideas on the philosophy of
administratorsand advisors which lead to recruits for research programs both of a graduate and undergraduatenature.The authors believe in exposing students to experimental research projects which exposestudents to a laboratory type experiment, data reduction, a written document and as the capstoneportion of the experience an oral report. These oral presentations may be to other students or topeer review panels in program competitions.However, in all cases the main goal is to give the student an exposure to independent learningand allow the individuals or teams to experience what a “research” project is like.ProjectsAs one would expect, the research undertakings are a function of the student’s level ofeducational background. Students in the junior FEMME
Session 2532 Embedded Systems Course Focuses On Autonomous Robot Applications Ronald A. Lessard Norwich University Electrical Engineering DepartmentAbstractThe EE411 Micro-based (Embedded) Systems Course at Norwich University meets 3hours for lecture and 2 hours for laboratory each week of a 14 week semester. Thelaboratories case study a stepper motor robot design. The robot is designed to competein the IEEE Micromouse Competition. In addition, a wireless modem link was added toallow for simulation of other autonomous robot applications. After introducing thedesign from the top-down in the first laboratory, the tools and
private pilot. Tim leads the AT Department’s Hangar of the Future Research Laboratory, a multi-disciplinary lab focused on technology and process innovations for air vehi- cle maintenance, aligning with U.S. Next Generation Air Transportation System philosophy of embedded safety risk management and human-in-the-loop technologies. He currently teaches a highly interactive senior level maintenance management capstone course, Aircraft Airworthiness Assurance (AT402), uti- lizing Purdue’s large transport aircraft, incorporating SMS and QMS principles, engaging his students through active learning challenges and applied research projects.Dr. David M Whittinghill, Purdue University, West LafayetteRaymond A. Hansen, Purdue
consistency purposes, such conversion must be set within acontext of ET curricular needs. Certainly not unique to ET, but critically important to ET nonethe less, are curricular needs for the following types of educational experiences: Page 22.631.4 “Hands-on” activities vs. demonstrations, Laboratory-based course work, Pedagogical designs emphasizing activities and assignments organized as discrete projects, and Extensive use of teams throughout all aspects of the curricula.The needs for ET curricula identified above were handled by engaging in curricular design anddevelopment holistically from the program or systemic level
quality knowledge and skills to the students, thereby lowering their overall development and employability. At times, the faculty also lack in communication and pedagogical skills and industry academia collaboration is also at nascent stage. Faculty development basically means: Improved teaching and learning necessary for deep understanding of technical information and skills Implementation of latest teaching strategies Creating practical learning environment provided by laboratories and workshops Effective assessment methods to determine quality and improve the learning process Understanding properly the changing role of teacher in various areas including research ‘Train the Trainer’ model has to be
EngineeringEducation. Though the Focus is to provide access, to many but equally important is to ensurequality of education. Engineering graduates today require not only adequate technologicalability and problem solving skills, but also must be equipped with soft skills, business skills,inter personnel and intercultural adaptability.Now, the emphasis should be on self learning and the role of teacher is redefined as facilitatorto enable the students to be more involved in active learning through laboratory. Project work ,assignments and case studies Lifelong learning and continuous learning is key aspect of teacherand student.International collaborations are essential for better student development. Inview of theglobalisation and in this endeavour the role of
Engineering Societies) Page 19.5.1 c American Society for Engineering Education, 2015 Collaboration is the Silver BulletThe Latin American and Caribbean Consortium of Engineering Institutions haslaunched a number of capacity building initiatives in the area of engineeringeducation (accreditation, pedagogy, laboratories, management, leadership,curriculum innovation, K-12 outreach) all in collaboration with otherorganizations. This permits, not only a decrease in cost and effort required fromthe organization, but also allows value added components. This paper discusseseach collaborations
with the goal of creating a discovery-oriented learning Page 7.702.2environment so students can discover for themselves the engineering principles and relationships Proceedings of the 2002 American Society for Engineering Education Annual Conference & Exposition Copyright ã 2002, American Society for Engineering Educationthrough guided, hands-on activities. Therefore, the laboratory period begins with a 15- to 20-minute presentation on the relevance of each week's hands-on activities and to give studentsfeedback on their work for the session, and to set in context the session's work in relation to thelarger
behavior of these systems.Currently, in spite of present dynamics and complexities in water distribution systems, fluidmechanics and hydraulic courses are taught to engineering students focusing only on the physicalproperties and dynamics of fluids. There is a significant need for engineering students tounderstand physical, chemical and biological dynamics, and their interrelations, in waterdistribution systems to meet the demand for both a trained work force and the maintenance of anaged water infrastructure [1-7]. This project aims to address the current lack of integrated waterdistribution system education by providing laboratory modules and kits coupled with acomputational modeling tool for hydraulics and water quality simulation in water
show an input sinusoid and the resulting outputsinusoid. The application can be used for in-class demonstrations of circuit behavior or can bedownloaded for direct student use. It has low computer requirements and can be run on bothWindows and Linux operating systems. The design goals were that selected circuit behaviorcould be easily displayed and explored.KeywordsUndergraduate Student Poster, Programming, Software, Virtual Laboratory.IntroductionVirtual tools for instruction provide flexible options in the learning environment. Lectures canbe supplemented quickly and inexpensively with multimedia content. Laboratory preparationcan be done with interactive simulations. Virtual instrumentation in electrical engineeringcourses has long been
first hand the issues involved in prototyping and product development.These laboratories are expensive to set up and even more expensive to maintain and staff withwell-qualified technicians. At Wichita State University (WSU) we have worked out a plan thatenables our students to use the laboratories at one of the local community colleges called theWichita Area Technical College (WATC). In this agreement the students are provided first handexposure to manufacturing techniques such as machining, welding, and composite blue printreading / fabrication, among other laboratory exercises. The laboratory sessions are taught byWATC instructors with extensive background and training dedicated to the variousmanufacturing areas. Students will be expected to
Paper ID #42983Board 94: Work in Progress: Development of Lab-Based Assessment Tools toGauge Undergraduates’ Circuit Debugging Skills and PerformanceAndrew J. Ash, Oklahoma State University Andrew J. Ash is a PhD student in Electrical Engineering in the school of Electrical and Computer Engineering at OSU and he is a research assistant in Dr. John Hu’s Analog VLSI Laboratory. He received his B.S. in Electrical Engineering from Oklahoma Christian University. Andrew’s research interests include hardware security of data converters and engineering curriculum development.Dr. Jennifer Dawn Cribbs, Oklahoma State University