advisors. In an effort to eliminate the variable of the effect of different faculty Page 26.473.14 Designettes in Capstone: Initial Design Experiences to Enhance Students’ Implementation of Design Methodologyadvisor on a team, the following observations were made by a faculty member that directlyadvised two teams.The designette was experienced by two capstone design teams tasked later with developinginnovative military technologies for Department of Defense Laboratory customers. Thedesignette began on the first lesson, and the teams presented their solution on the fourth lesson,giving them three
more holistic appreciation for professional practice issues and to prepare them for theworkplace.21 Such experiences should relate course material to professional practice; becommensurate with a student’s skill level according to their progression through a curriculum;and, should not be perceived by students as being redundant. Examples of such experiencesinclude: field trips; hands-on laboratory exercises; field sampling; modeling; technical designs;experimental designs; independent laboratory research projects; and research papers.6 Much ofthe critical thinking skills described in Bloom’s taxonomy can be accomplished via laboratoryexperiences.18,23 The objectives of lab experiences include15,23: instrumentation, experiment,data analysis
AC 2009-1328: A NEW ELECTRICAL ENGINEERING LABORATORY FACILITYCOMBINES TRADITIONAL LABORATORY EXPERIMENTS,COMPUTER-BASED LAB EXERCISES, AND LABS TAUGHT VIA DISTANCERobert Egbert, Missouri State University Dr. Robert Egbert is Professor of Electrical Engineering at Missouri State University (MSU) in Springfield, MO. He received B.S., M.S., and Ph.D. degrees from the University of Missouri - Rolla (now Missouri University of Science and Technology - Missouri S&T). He has industrial experience with Black & Veatch Consulting Engineers in Kansas City and MKEC Engineering Consultants in Wichita, KS. He was a member of the faculty of the Department of Electrical and Computer Engineering at
Biomedical Engineering Society.Joseph M LeDoux (Executive Director of Learning and Training) © American Society for Engineering Education, 2022 Powered by www.slayte.com WIP: A novel problem-driven learning laboratory course in which biomedical engineering students conduct experiments of their own design to answer an authentic research questionAbstractOften, in traditional laboratory courses, students carry out experiments for which the results arealready known, following pre-written protocols that they are expected to perform with rotecompliance, and evaluated on compliance and conformance. Students who are trained in thisway, when confronted with a
professor of practice in chemical engineering at The Ohio State University where he teaches Chemical Engineering Unit Operations. He earned his B.S. in chemical engineering from Rose-Hulman Institute of Technology and his M.S. and Ph.D. in chemical engineering at Ohio State. Having worked as a manufacturing process engineer for ten years, his focus is on optimizing the process of teaching, as well as hands-on, practical engineering concepts relevant to chemical engineers entering industry. American c Society for Engineering Education, 2022 Design of a Low-Cost PID Level Control Experiment to Teach Chemical Engineering Concepts in an Introductory Engineering
are also made available to the teams). This designstudio is not only a “safe zone”, it is also a “team zone”. In its first year of operation, this designstudio is proving a useful addition for effective delivery of the capstone design experience. Page 11.1116.4 Figure 1. – A senior design studio serves as meeting place for project teams as well as providesome light fabrication, assembly, and test facility to complement laboratories and machine shopsGrowth in Enrollment and Industrial ParticipationSince its inception in 1999 the senior design course has seen steady growth in enrollment as wellas in industrial participation, this growth is
Korolev, University of FloridaProf. Philip J. Brucat, University of Florida ©American Society for Engineering Education, 2018 General Chemistry Laboratory as Situated Engineering DesignIntroductionChANgE Chem Labs is an NSF-funded Improving Undergraduate STEM Education (IUSE)project that involves curriculum reform for improving the experience of freshman engineeringstudents taking general chemistry. Our current work builds upon prior success with recitationreform [1], [2] to include engineering Design Challenges (DCs) as laboratory activities that arebased upon the NAE Grand Challenges for EngineeringTM.The laboratory has long been viewed as an important component of a chemistry course [3],offering a unique
developed and delivered a PBL experience for the first lab in the course. The PBL Page 25.105.3lab was designed to engage students, get them interested in the course content and motivate themfor the semester. While extensive technical content was intentionally not presented prior to thePBL lab, students were introduced to the range of processes they would encounter during thesemester (e.g., coagulation, filtration, etc.). Students were provided no information on thecontent of the PBL lab and were asked only to bring a calculator, a ruler, writing implements anda notepad.The PBL lab was adapted from a similar unit in the United States Air Force
Paper ID #15402Assessment of Retention Where Students Create and Teach Laboratory Ex-periments through a Capstone ProjectDr. Daniel J. Magda, Weber State University Professor, Mechanical Engineer, Ph.D. c American Society for Engineering Education, 2016 Assessment of Retention Where Students Create and Teach Laboratory Experiments Through a Capstone ProjectAbstractThe objective of this paper is to improve student retention of their engineering mechanicseducation with a teaching/learning strategy implemented in their capstone design project class.There are many quotes from great historians and current
foundto enhance interactions between instructors and student design teams, ultimately increasingenrollment and satisfaction [6]. Furthermore, advocates of blended learning in engineeringeducation highlight its potential to enhance creativity, innovation, and the development ofindependent learning skills among students [25].2.2. Moving beyond emergency remote teaching. During the summer of 2020, the ChemicalEngineering Department at the University of Florida had to face the challenges brought on by theCOVID-19 pandemic. In response, a team of professors was assigned to devise an emergencyresponse teaching solution to transform a technology-enhanced laboratory (See Figure 1) into anentirely online lab experience [26]. The objective was to build a
professor of chemical engineering at The Cooper Union in New York City. ©American Society for Engineering Education, 2023 Introduction of a Carbon Dioxide Capture Experiment in a Senior Chemical Engineering Laboratory CourseAbstractWith the severity of climate change impacts increasing, it is imperative to educate students aboutclimate change and potential technologies that may be used to mitigate it. To teach studentsabout climate change and an emerging industry in carbon dioxide removal (CDR), a carbondioxide capture experiment was included in a senior chemical engineering laboratory course. Theexperiment was iteratively scaled-up and student-designed in one rotation of a single
experimental datato verify their hypothesis. Each student’s work is then arranged either in poster format or aconference proceeding, as if they were submitting their work to a conference. We believe thatthis experience educates all of our undergraduate engineering students in proper laboratory use,experimental design, and research methodologies.IntroductionUndergraduate education in engineering has traditionally prepared students to excel atengineering analysis and design, with a much lesser focus has been placed on experimentalmethods, especially scientific experimental methods. This engineering education hastraditionally been formulated by means of students taking courses in engineering science anddesign with supplemental laboratory experiences
aerospace electronics at EMS Technologies in Norcross, GA. Dr. Ray is active in power electronics consulting work for various industrial and governmental agencies. c American Society for Engineering Education, 2016 An Inexpensive Control System Experiment: Modeling, Simulation, and Laboratory Implementation of a PID Controller-Based SystemAbstractThis paper presents a classroom-proven control system experiment that conveys the fundamentalconcepts of designing a PID controller based closed-loop system. The laboratory experimentpresented herein provides an opportunity for students to model, design, simulate, and implementa complete feedback control system in a very inexpensive way by using only a couple of
engineering laboratory courses, with the aim of enhancingcourse design and providing a better learning environment. The result shows that studentsgenerally have positive opinions about the use of digital resources in engineering laboratorycourses. Additionally, student feedback emphasizes the importance of virtual lab materials thatare interactive, excellent, and well-organized. The findings of this study lead torecommendations for further enhancements in the integration of digital resources in blendedengineering laboratory courses.MethodTo gather information on students' perceptions and experiences with digital resources and virtuallabs in laboratory courses, a survey was developed and distributed to engineering students. Atotal of 219 students
do actual FDMor tensile testing, and (iii) a group of using both the VR and hands-on experiments. Eachexperimental condition begins with an orientation training session designed to teach students aboutVR and AM techniques.2. Literature reviewOn February 11, 2019, President Donald Trump signed an executive order launching the AmericanArtificial Intelligence (AI) Initiative, directing federal agencies to focus on the technology. AI hasbecome a defining issue, affecting national security, economic development, human rights, andsocial media. Currently, VR for AI has been studied in the form of human-centered simulation forsocial science [1], and researchers have applied AI to VR, which is called Intelligent VirtualEnvironments [2]. It is
. Other part-time students select aproject to design and build something for themselves; possibly to fulfill a hobby interest or tomeet a need at home. Roughly half of the senior project students are full-time. These are thestudents that faculty can most easily recruit to design and build laboratory experiment, trainers,classroom demonstrations, set-ups for families of experiments, or to work on some aspect of theMini-Baja vehicle, moon buggy, or other competitions. Except for the competitions, facultyadvisors generally limit projects to a scope that suits an individual or a pair of students. Studentscomplete the projects by the end of the second course; total one year. How the courses aretaught, while interesting and useful, is beyond the scope
for c & h-j for design,contemporary issues, and social context.Laboratories are a natural fit for coursework combining development of engineering practicesand skills aligned with core content theories. Research indicates engineers “learn by doing”3-7,and that laboratory experiences are critical to development of professional engineers. While thereare variations in objectives for laboratory in the research literature, an approach taken by Ma andNickerson7, who conducted a literature review on laboratory objectives and then aligned them toABET objectives will be used here as a frame for discussion. It is easy using this frame toconnect and extend the original work7 to ABET goals for 2015 as shown in Table 1. This revisedframe was used by
Baxter robot can lift larger objects far easier thansmaller ones such as wires, as a result of the small surface area, low friction, and flexibility. Weare conducting research to optimize gripper designs for various different labs and anticipatedexercised and target objects. This will be discussed more in the next section. Figure 2. Telerobotic Experiment DepictionLaboratory Exercise Implementation Adapting this teleoperation setup to different classroom laboratories requires some amount ofcustomization. These range from simple modifications to complex additional featureimplementations. For example, in electronics labs, one of the easiest experiments to adapt isrelated to conducting measurements. For this task
,Introductory Lab Module in Biological Sciences, which focuses on the scientific method,principles of experimental design, selected research strategies, record keeping, and technicalcommunication. In the junior year, students take BIOS 311, Lab Module in Protein Purification,or BIOS 312, Lab Module in Molecular Biology. BIOS 311 provides experience in themanipulations, instrumentation, and considerations for purifying proteins. BIOS 312 provides anintroduction to microbiological and molecular biology techniques. Within the BioengineeringDepartment, students take BIOE 342, Lab Module in Tissue Culture, during their junior year andBIOE 441, Advanced Bioengineering Laboratory, during their senior year.Goals of Bioengineering Laboratory CoursesThe
configuration settings chosen for our implementation were 10GB of disk space, serial portinterface and bridged networking.Real-Time Lab Curriculum ImplementationA real time systems laboratory curriculum based on dual-core architectures has been presented inthis forum in the past.2 It was designed for a senior elective course EENG 4325 Real TimeSystems at the University of Texas at Tyler that combines lectures along with an integrated lab.The students are required to have at least one course in structured programming, and a course orprior experience with the operation of microprocessors, but Linux experience is not required.The curriculum aims towards educating students in the real-time systems environment. The basiclab projects 3 were designed on the
experiment through an undergraduate research project.Outline of the Implemented Approach:The goal was to develop a multifunctional modular biochemical experiment by undergraduatestudents as research projects that can be used in classrooms as well as in the undergraduatechemical engineering laboratory courses. The experiment developed by Badino and Hokka(1999)3 to produce clean fuel via ethanol fermentation process was selected since differentmeasurement and analytical techniques can be used, and various kinetics-transport parameterscan be studied. In addition, the set-up can be modified to perform different fermentationexperiments in the unit operations laboratory.The experiment has been designed and developed under the supervision of the
DesignProbably the most exciting aspect of ENG 1430 for first engineering students is the actual fabrication and Page 15.1292.2demonstration of their design projects. The projects increase in complexity as students gain experience. Theinitial project is completed in one studio session. Ultimately teams will have three weeks to design, build anddemonstrate their solution to the design assignment. It is important for students to gain the experience ofdesigning systems that must be built to meet a performance standard. As projects become more complex,students gain an appreciation of the increasing interactions of components in these more
Paper ID #19614Clinical Immersion Program for Bioengineering and Medical StudentsProf. Susan Stirling, UIC School of Design, University of Illinois at Chicago Susan Stirling is a a designer, researcher and educator. She has an undergraduate degree from the Univer- sity of Wisconsin-Madison and a graduate degree from the Institute of Design at the Illinois Institute of Technology. At the University of Illinois at Chicago she teaches Design Research Methods, Human Experience in Design and Interdisciplinary Product Development. Susan collaborates with non-design faculty to teach the design process, and helps
Experiences in Six Integrated Pillar CoursesAbstractThe NSF-funded “Pillars of Chemical Engineering” program was implemented in 2003 at theUniversity of Pittsburgh’s Swanson School of Engineering, with the traditional undergraduatecourses in chemical engineering restructured into six Pillar or core courses.1 The purpose was todevelop a completely integrated chemical engineering curriculum with one of the six Pillarcourses taught each semester, beginning in the fall of the sophomore year. The Pillars aredesigned to introduce students to engineering fundamentals in mass and energy balances,thermodynamics, kinetics, transport phenomena, process control, and design while providing anaccompanying laboratory experience for each Pillar. These six Pillar
abstractrepresentation of reality. Thus, the goal of learning, behaviourism submits, is to understand thereality and modify behaviour accordingly, and the purpose of teaching is to transfer theknowledge from expert to learner18. The behaviourist model is still widely adopted forinstructional design of teaching factual or procedural knowledge of engineering. Instructorsconvert the reality into abstract or generalized representations, and transfer them to studentsthrough a well-planned, linear and gradual procedure in a “tamed” environment, be it aclassroom or laboratory. The students’ performance is assessed by measuring the proximity oftheir behaviour (answering questions, writing reports and essays, performing laboratoryexperiments, etc.) to the expected
developing a packaged suiteof comprehensive laboratory experiments and modules. In this study we incorporate greenenergy and sustainable manufacturing into our undergraduate courses and laboratory experimentsfor student learning purposes. Our approaches are: (1) redesigning existing courses throughdevelopment of new laboratory module materials that meet the project objectives and (2)developing new laboratory courses that address specific topics related to sustainability, such asclean energy, green manufacturing, and life-cycle assessment.2. Green Energy Manufacturing Education and PracticeGreen design and manufacturing for sustainability are emerging fields in recent years and asustainable development model for modern industries. They encompass the
An Interdisciplinary Control Systems Course for Engineering Technologists: Description of Lecture Topics and Laboratory Experiments Harry W. Fox Cleveland State UniversityAbstract For the past two years we have offered a required senior-level control systems course withlaboratory designed to be taken jointly by mechanical engineering technology (MET) andelectronics engineering technology (EET) students. This course focuses on the interdisciplinarynature of control systems and represents a departure from the traditional approach of teaching aseparate control systems course to each engineering technology discipline. Certain controlsconcepts, such as
of inherent interest to students. The specificapplication studied in this laboratory is the addition of small amounts of nitrogen to altermicrostructure in the weld deposit. Understanding the process requires the integrated use ofthermodynamics, kinetics, physics, chemistry, solidification, heat and mass transfer, phasestability and materials engineering.Few laboratory experiences allow engineers to explore the performance of real engineeringmaterials at homologous temperatures greater than 0.8. Fewer still enable students to relatematerial performance at these temperatures to the microstructure of the material. Moreover, therelationship of material properties at lower temperatures are rarely graphically and directlyconnected to the
CoursesAbstract Providing engineering students with hands-on experiences in physical laboratories is acritical factor in producing well rounded graduates. Additionally, engineering students needto gain as much experience working on teams as possible, so they are prepared for theteaming environment that is prevalent in industry. While implementing a group-based coursedesign might be more difficult on the instructor, it provides greater benefit to the students andreduces laboratory equipment cost and support staff. The details of how groups are structuredand selected plays a major role into how effective the group-based course design will be.Allowing students to self-select their group is by far the easiest on the instructor and onewould naturally
influence the downstream design and testing processes. Materials, methods,and tools are outlined, including the use of servomotors and microcontroller-basedcontrol systems. Students in the Engineering Technology program are required to workwith this robotic experiment as part of a laboratory session in the “MET 205 Roboticsand Mechatronics” class. The project provides students with such robot design experienceand enables them to improve their robotic skills by using wireless microcontrollers forperforming different robotic applications.Introduction This paper presents the design of a cell phone-controlled walking robot forteaching and research integrated with the emerging fields of bionics through an NSFproject involving undergraduate and