Session 3-1 Implementing and Validating Analog and Digital Controllers Horacio Vasquez*, Javier Kypurosa, Roy Villanueva * Corresponding Author. Assistant Professor Phone: 956-292-7419, Fax: 956-381-3527; e-mail: vasqu002@panam.edu a Assistant Professor Department of Mechanical Engineering, The University of Texas-Pan American 1201 West University Drive, Edinburg, TX 78539 AbstractTeaching control systems concepts to mechanical
4 is to conduct themselves in a professional and ethical manner.Finally, in an effort to generalize these PEO’s, Table 6 maps these PEO’s to both desired traits ofengineering graduates as well as the institutional core values. It can be seen that PEO statementsshould cover four core traits that we would expect for our graduates: 1 Practice Engineering 2. Advanced Learning 3. Leadership 4. Professional Responsibility. Proceedings of the 2017 ASEE Gulf-Southwest Section Annual Conference Organized by The University of Texas at Dallas Copyright © 2017
sixprimary steps: 1) problem definition, 2) analysis, 3) design, 4) implementation, 5)Evaluation, and 6) Maintenance. As shown in the figure, the process is an iterativeone providing an ongoing refinement of the initial problem definition model.Modeling is a human construct to help us better understand complex real worldproblems. Modeling complex systems has several general benefits. Modelingallows the client as well as all stakeholders to better understand the business orengineering problem and craft more effective solutions. Problem Definition Iterative Process Requirements
://www.immagic.com/eLibrary/ARCHIVES/GENERAL/U_LONDON/L040616L.pdf 3. Bourne, John; Harris, Dale; and Mayadas, Frank, "Online Engineering Education: Learning Anywhere, Anytime", 2005. Paper 1. http://digitalcommons.olin.edu/facpub_2005/1 4. Elaine Allen, I., Jeff Seaman, “Going the Distance Online Education in the United States”, 2011, Online book available at the website http://www.onlinelearningsurvey.com/reports/goingthedistance.pdf 5. I. Elaine Allen and Jeff Seaman Grade Change “Tracking Online Education in the United States”, Babson Survey Research Group January 2014. 6. University of North Dakota website, “Online Civil Engineering Degree”, http://und.edu/academics/extended-learning/online-distance/degrees
create a poster about a topic from thehistory of technology. Topics were submitted to the instructor for approval. Students presented their posters duringa poster session, during which they reviewed each other’s work and provided an evaluation. Topics included thehistory of radio and television, Marconi’s transatlantic radio system, the Big Dig and Zakim Bridge, the PilgrimNuclear Power Plant, the Cape Cod Canal, wind farms, robotic surgery, textile mills, and the development ofbackscatter X-rays. These first year students had completed a calculus course and were enrolled in their first physicscourse and second calculus course. They had almost no exposure to courses in their majors, so their understandingof the technical issues was quite shallow
affect the type of team test to develop.In a team test, the students complete an individual test paper as well as a group test paper. Theindividual component enforces individual accountability and allows the instructor to askquestions in formats that do not naturally benefit from a group discussion. The group componentasks the stude e a a e he dea a d he e a ha c a e he beideas generated by the members of the group. Due to the need to compare and defend ideas,questions on the group test naturally elicit and evaluate higher-level cognitive functions likeanalysis, evaluation and transfer [1]. By doing so, team testing converts the evaluationenvironment into a learning environment. Depending on instructor
in the inverted classroom format are well founded in theliterature. Active learning has been demonstrated to be beneficial for learning for the vastmajority of students in engineering classes.2 However, there is a general perception that with thefixed time available in the classroom and apparently ever increasing demands on that time, it is Spring 2015 Mid-Atlantic ASEE Conference, April 10-11, 2015 Villanova Universitydifficult to find the time to include significant active learning components. The invertedclassroom can be used to increase the classroom time for active learning without reducing thecontent covered in the course.3 Also, the inverted classroom allows for learning to occur in aformat that more closely resembles how
at the University of Texas Arlington (UTA) in order toprovide a conceptual assessment of architecture/concept of operations/technology combinations.The primary challenge has been the exploration of past, present, and future in-space investmentsin the context of mission performance, mission complexity, and industrial capability.Consequently, this study necessitated the use of a simulation capability to assess and visualizethe physical design drivers and sensitivities of the operational and technical domain.The overall goal of the study has been the development of a system with the capability to transferpayload to and from GEO. To this end the following concepts of operations (ConOp) have beenstudied: direct insertion/reentry (ConOp 1), and
engineering undergraduate programs have an end-of-program design project,termed capstone project, to culminate the engineering studies. Depending on the program andparticular institution, they may have different course structures [1], [2], [3], [4], [5], [6] and differentstudent outcomes or expectations. Ozkan et al. [1] examines the ancillary effects (both positive andnegative) of poorly defined problem statements, and the importance of understanding the actualproblem before attempting a solution. One accreditation-based educational objective is to document“student must demonstrate an ability to identify, formulate complex engineering problems….” This isoften a difficult and perplexing step for the students, who naturally want to jump directly into
Technical Paper Series 840936, San Diego, CA, July 16-19, 1984. Proceedings of the 2014 American Society for Engineering Education Zone IV Conference Copyright © 2014, American Society for Engineering Education 1337. Sharma, P. K.; Rapp, D.; Rahotgi, N. K., “Methane Pyrolysis and Disposing of Resulting Carbon,” In Situ Resource Utilization (ISRU 3) Technical Interchange Meeting, ISRU, Denver, CO, February 11-12, 1999.8. Hoekman, S. Kent; Broch, Amber; Robbins, Curtis; Purcell, Richard, “CO2 Recycling by Reaction with Renewably-Generated Hydrogen,” International Journal of Greenhouse Gas Control
Problem-Based Learning: A Tale of Three Courses 1 Problem-Based Learning: A Tale of Three Courses Lisa Greenwood, Mark Indelicato, Miguel Bazdresch, and Mike EastmanAbstractCourses in engineering and science are typically taught deductively, through transmission ofinformation from instructor to student, followed by practice problems to reinforce what wascovered in readings and lectures. Yet in our personal and professional lives, we learnexperientially – by facing a real situation and attempting to address it, and from our relatedsuccesses and failures.Experiential education emphasizes a mixture of content and experiences, connection oflearning to meaning and to
1 Session XXXX Pioneering Approach for Offering the Convergence MS Degree in Mechatronics and Associated Graduate Certificate Aleksandr Sergeyev Mechatronics, Electrical, and Robotics Engineering Technology, College of Computing, Michigan Technological University Houghton, Michigan Adrienne Minerick College of Computing, Michigan
ETD 505BackgroundThe Pacific Northwest (where UWT is located) is not only known for its sprawling, lush forestand superb natural beauty, but it is also known for its thriving technology development, bustlingports, abundance of distribution warehouses, and expansive aeronautical manufacturing facilities.The area is home to Microsoft, Google, Amazon, Boeing, SpaceX, and Blue Origin, to name justa few. However, what most people don’t realize is that Washington State has an ongoing deficitin technical talent. Each year, there is a significant shortage of new engineers, computerscientists, and information technology professionals to fill positions in the region’s high techsectors as shown in Figure 1 below. Thus when a new regional campus of UW
through written, oral, and graphical presentations (technical reports and presentations) Proceedings of the 2005 ASEE Gulf-Southwest Annual Conference Texas A&M University-Corpus Christi Copyright © 2005, American Society for Engineering EducationPEO C: The graduates of the program are expected to have the ability of using modernexperimental techniques; collect, analyze, and interpret experimental data; and effectivelycommunicate the results.POs for PEO C: Students will develop the following abilities through their undergraduateeducation in this department:C-1 to design and conduct experiments to analyze and interpret experimental dataC-2 to use modern
best practicesProceedings of the 2011 Midwest Section Conference of the American Society for Engineering Education 5With these goals in mind, we designed the following set of course objectives: 1. List the main parts of a microprocessor 2. Draw a block diagram of CPU internals, and label each part 3. Process data presented in various representations 4. Differentiate between general purpose microprocessors and embedded processors w.r.t to limitations, styles of programming and resources 5. Explain the effect of storing all information in the form of a finite number of bits (quantization) 6. Design an algorithm to solve a
conduct experiments, as well as to analyze and interpret data.b.1 Identify and describe experiment goals, related theoretical concepts and resources to be used.b.2 Execute a systematic and structured experiment with organized data.b.3 Analyze and critically interpret data using appropriate tools.b.4 Draw meaningful conclusions and produce a high quality technical report.Outcome c: An ability to design a system, component, or process to meet desired needs withinrealistic constraints such as economic, environmental, social, political, ethical, health and safety,manufacturability, and sustainability.c.1 Define requirements specifications (scope) and constraints for the component or system to bedesignedc.2 Develop a feasible design to comply with
Education 4 1 • Mentors teach and demonstrate best methods of teaching and learning. 2 • Participants apply the best methods of teaching and learning in practice sessions. 3 • Mentors teach and demonstrate learning assessment skills. 4 • Program fosters a passion for teaching; and builds a learning community of civil engineering 5 educators. 6 7 Faculty who attend ExCEEd Teaching Workshops are expected to: 8 9 • Demonstrate, at the workshop, the principles of effective teaching.10 • Apply, at the workshop, lesson assessment techniques.11 • Implement, at their home institutions, concepts and strategies of
Session 12-19 Investigating the Role of Fluid Dynamics and Wall Mechanics inAtherosclerosis, Plaque Rupture, and Plaque Excavation in the Human Carotid Bifurcation Scott T. Lovald, Tariq Khraishi, Juan Heinrich Mechanical Engineering Dept., University of New Mexico Howard Yonas, Christopher Taylor Dept. of Neurosurgery, University of New Mexico AbstractAtherosclerosis affects millions of people worldwide and can lead to heart attack andstroke. The human carotid artery bifurcation is a critical site often affected by
thirty-first SIGCSE technical symposium on Computer science education, ACM publication, Vol. 32 Issue 1, pp. 65-69, March 2000. 16. Alaghband, G. and Jordan, H.F. “Overview of the force scientific parallel language”, in the Journal Scientific Programming, Vol. 3, No. 1, Spring 1994. 17. Ashlock, D. “Evolutionary Exploration of the Mandelbrot Set,” in IEEE Congress on Evolutionary Computation, 2006. 18. Coates, R.F.W., Janacek, G.J., and Lever, K.V. “Monte Carlo Simulation and Random Number Generation,” in IEEE Journal on areas in communications, Vol. 6, No. 1, 1988. 19. "BLAST: Basic Local Alignment Search Tool," http://blast.ncbi.nlm.nih.gov/Blast.cgi - accessed on June 21, 2013. 20. "AMD CodeAnalyst
University ofTechnology in Japan, for sharing his microfluidics-based research in the class. SR appreciates hisdepartment for its generous support for the class and Teaching Fellows Program of his college ofengineering.References[1] N. Convey & N. Gadegaard, “30 years of microfluidics,” in Micro and Nano Engineering, 2019, vol. 2, pp.76-91.[2] J. Merrin, “Frontiers in microfluidics, a teaching resource review,” in Bioengineering, 2019, vol. 6, p.109.[3] N. Azizipour, R. Avazpour, D. H. Rosenzweig, M. Sawan & A. Ajji, “Evolution of biochip technology: A review from lab-on-a-chip to organ-on-a-chip,” in Micromachines, 2020, vol. p.599.[4] P. Cui & S. Wang, “Application of microfluidic chip
Saturday Morning Session 1- Student Design Innovation for Electric Aircraft Jonathan Crosley, Vincent Ricketts, Amit Oza, Bernd Chudoba Mechanical and Aerospace Engineering Department University of Texas at Arlington AbstractIn spring 2012 the University of Texas at Arlington (UTA) aerospace engineering senior designcapstone class was challenged to design an electric experimental aircraft that adopts the Spirit ofthe Spirit of St Louis. The mission for this next-generation electric aircraft is to fly along thehistoric Route 66. The spirit of this modern
- Technical Variable to Predict the Academic Success of Freshmen Engineering Students,” Journal of Engineering Education, vol. 92, no. 1, January, pp. 41-48. 11. Verner, I.M. and Ahlgren, D.J. (2002). “Fire-Fighting Robot Contest: Interdisciplinary Design Curriculum in College and High School,” Journal of Engineering Education, vol. 91, no. 3, July, pp. 355-360. 12. Segall, A.E. (2002). “Science fiction in the Engineering Classroom to Help Teach Basic Concepts and Promote the Profession,” Journal of Engineering Education, vol. 91, no. 4, October, pp. 419-424. Proceedings of the 2004 ASEE Gulf-Southwest Annual Conference Texas Tech University
successful outcomes across universities internationally 1 . This modelhas extended towards younger students with emphasis on developing interdisciplinaryproblem-solving skills by addressing problems using technical, mathematical, and socialunderstanding. Special attention has been placed on making engineering content “relevant”through hands-on demonstrations and tangible experiments designed to spark interest inengineering. Examples include creating an environmental education course in which studentsbuild a greenhouse using 5E principles in Turkey; this resulted in an increase in scientificcreativity scores 2 . Educators also saw an increase in the use of maker-spaces and problem basedlearning projects that complemented state learning standards in
Session T3D4 Ethics in Engineering Education Sarah J. Smith Engineering Technology Department Purdue University North Central AbstractHow are core ethical values within students developed so graduates are prepared to makeethically sound decisions? Some ethicists believe humanity is entering an era referred toas the Morally Deficient Society. Yet almost a century ago, Teddy Roosevelt stated “Wedraw the line against misconduct, not against wealth. The capitalist who, alone or inconjunction with his fellows
for the process industries. With support engineering sciences from the Technical University of Berlin.from the National Science Foundation, the Department of Ignacio Grossmann is the Dean UniversityEnergy, member companies, and other funding agencies, the Professor of Chemical Engineering, and for-CAPD group has pioneered the discovery, development, and mer department head at Carnegie Mellonapplication of new methods for process design, analysis, and
Session 12-6 Network Controlled Data Acquisition Drone Juan Hernandez, Michael Alegre, Dragan Siljegovic, Robie Calong, Farrokh Attarzadeh, Ankur Shukla, Vishal Naik Engineering Technology Department University of Houston AbstractThis paper describes the result of the senior project completed in December 2007 and shows thedetails of the subsystems along with future enhancement to the drone. The project is currentlybeing reviewed by the office of Intellectual Property Management at the University of
activities take advantage of theirintense and competitive nature.One example is the “flow bench” lab in which teams of students strive to get the best performance fromthe porting of an internal combustion (IC) engine head. The competitive nature of the students resulted inhigher than expected scholastic output. The report had a one page minimum requirement; nevertheless,the average report exceeded 12 pages (1200% performance).A second example related to the use of a race session where the students logged race car data which waslater used for analysis. The students applied the expected analytical tools but then became more engagedas comparisons of students driving techniques were revealed, (fortunately, always with great positivespirit and
inclusion of more visualization in courses, in-class active learning assignments, and the useof electronic portfolios across these curricula. Understanding patterns in student learning styleshas pedagogical value, as it has helped ABE instructors understand not only how the studentsto tend learn best, but also how classes should be structured so that students can learn insituations that don’t match their learning style. INTRODUCTIONLearning is a process of perceiving and processing new information. Several different learningstyle models have been developed to facilitate understanding of how different people learndifferently. Several learning style models are commonly cited in the literature, including: 1)Myers
activities take advantage of theirintense and competitive nature.One example is the “flow bench” lab in which teams of students strive to get the best performance fromthe porting of an internal combustion (IC) engine head. The competitive nature of the students resulted inhigher than expected scholastic output. The report had a one page minimum requirement; nevertheless,the average report exceeded 12 pages (1200% performance).A second example related to the use of a race session where the students logged race car data which waslater used for analysis. The students applied the expected analytical tools but then became more engagedas comparisons of students driving techniques were revealed, (fortunately, always with great positivespirit and
the left hull and the other in the righthull. Each of the motors requires to be brushless motors, both use jet thrusters to move the boat.The intention of using these thrusters is to displace the vehicle’s larger distance with less power.The thrusters extract the water from below and eject it generating propulsion and bringing motionpower to the boat. The motors selected for this task have to be selected considering the dimensionsof the hull. Design 3 has two hulls of a length of 36 inches. To determine the power required (P),and the Kv, the next equations are used. 𝑃𝑜𝑤𝑒𝑟 = 4.279𝐻𝐿2 − 163.1𝐻𝐿 + 1901.5 (1) 𝑅𝑃𝑀 𝐾𝑣